Systems, methods and apparatus for light enabled indoor positioning and reporting

ABSTRACT

The present disclosure is directed systems, methods, and apparatus for light enabled indoor positioning and reporting. In some embodiments, a device of the present disclosure includes a housing that includes a processor and a wireless radio. The device includes a clip that secures the housing adjacent to and a predetermined distance from a portion of a light tube that produces light. The device includes a solar cell that is configured to be exposed to the light from the light tube upon the housing being securely attached via the one or more clips adjacent to the portion of the light tube. The device includes a circuit by which power is converted from the solar cell to the processor and the wireless radio via at least one switch. The wireless radio can broadcast a beacon provided by the processor.

CROSS-REFERENCES TO RELATED APPLICATIONS

The present application claims the benefit of priority under 35 U.S.C.§119 to U.S. Provisional Patent Application No. 62/138,265, titled“Systems and Methods for Building Optimization with Indoor Positioningand Reporting”, filed on Mar. 25, 2015, U.S. Provisional PatentApplication No. 62/102,836, titled “Systems and Methods for VirtualBeaconing with Reporting”, filed on Jan. 13, 2015, and U.S. ProvisionalPatent Application No. 62/075,579, titled “Autonomous Control Beacon”,filed on Nov. 5, 2014, each of which are incorporated by referenceherein in their entirety.

FIELD OF THE DISCLOSURE

The present application is generally directed towards the use ofwireless beacons, wireless sniffing, and lighting as a means ofdelivering both positioning for mobile devices as well as real-time andpredictive feedback of building occupancy, enabling the contextualengagement of users and smarter buildings.

BACKGROUND

Humans spend 90% of our time indoors. However, using existinginfrastructure to establish indoor positioning of people (users) may beunreliable or inaccurate.

BRIEF SUMMARY OF THE DISCLOSURE

The systems and methods of the present disclosure described hereinaddress the need for contextually engaging users based on theirlocation, measuring user traffic through a space, such as a building,while providing a maintenance-free beacon solution that does not requiresetup and yet may be used to deliver accurate indoor positioning to anymobile device.

Indoor positioning can facilitate navigation, analytics, and contextualengagement of users. For instance, in the retail store environment,indoor position information can help shoppers locate items on theirshopping lists, and can help stores track their employees and physicalassets. These interactions can then be analyzed to generate valuableinsight on user traffic—where shoppers go, how they get there, dwelltimes, who they interact with and so on, all of which can be used forfloor plan and workflow optimization. Contextually, location data can befused with point of sale data and online activity to deliver newexperiences to shoppers. They can be engaged directly on their mobiledevice or looking to the future, by changing the environment aroundthem—for instance, shelves that light up to highlight items of interestto any given shopper. Additionally, data on how users utilize the floorplan of a building or similar structure is incredibly useful for theoptimization of building systems, such as lighting and HVAC (heating,ventilation, and air conditioning), resulting in an improvement in usercomfort and increased energy savings. User position data may be used tooptimize building floor plans based on real-world data and analysis onhow users occupy a space over any given time period. Energy savings andimproved floor plans result in monetary savings for building owners,operators, and tenants.

The present solution can capture user location with improved granularityin their measurements, is less expensive and easier to deploy, and/or isless intrusive to users. For example, the use of occupancy sensors,including PIR and/or Ultrasonic sensors may be unable to differentiateone user from multiple users. Cameras, such as security cameras, areexpensive and intrusive, especially when used in an office setting.Wi-Fi tracking, where wireless access points detect and record usersmart phone MAC addresses lack in user position accuracy, especiallywhen installed in locations with numerous partitions, walls, and levels,such as offices, hospitals, universities, and similar venues.

Common with all these technologies is their inability to bring any valueor usefulness to the user, rather they are strictly employed for usertracking and/or as an input into a building management system, such asan occupancy sensor for lighting or HVAC. Smart phones, wearable techdevices, apps and digital marketing become seamlessly integrated intoour daily lives. The present solutions can deliver indoor locationinfrastructure using lighting and sensors throughout spaces to deliverthis service directly to users while providing user tracking Localizedwireless solutions, such as wireless beacons, are emerging as a solutionfor indoor positioning. A wireless beacon is a one-way, open wirelessbroadcast, often using Bluetooth low energy (BLE) that includes sometype of data. This broadcast may be detected simultaneously by multiplenearby mobile devices, of which the data is read without the requirementto connect or pair to the wireless beacon. Often the data is configuredin the form of a universally unique identifier (UUID), but in all casesat its simplest form, the data is simply broadcast information.

Physical hardware can be deployed to provide wireless beacons.Third-party beacon hardware may include small, battery-operated modulesconfigured with the single task of broadcasting wireless beacon signals.Without special physical placement and setup, the use of wirelessbeacons for user positioning is largely inaccurate, at best a proximitysolution. This is because conventional positioning using beaconbroadcasts measures the power present in the received radio signal(referred to as received signal strength indication or RSSI) andcompares it to the original broadcasted power level, the power levelincluded in the beacon broadcast. In a real world environment, thistechnique produces inconsistent readings largely because of physicalconstraints, such as varying room layouts, varying obstructions(including people), and the orientation of the mobile device at the timeof receiving the broadcast. Additionally, when detecting two or morebeacon broadcasts, it is often difficult to establish which beacondevice is physically closer.

Today's beacon hardware requires a planned installation; with beacondevices often installed near points of interest. A point of interestcould be for example a product display in a retail store, such that asthe user approaches the display, their mobile device detects the localbeacon signal and establishes proximity to the display. A point ofinterest could be for instance a conference room in an office building.In either case, the mobile device would have been preprogrammed orupdated by a remote server to associate the specific data in the beaconbroadcast, such as the beacon UUID, with the specific location andtherefore react accordingly. In some embodiments, beacon hardware may beinstalled in known geo positions, and then calibrated to provide moreaccurate positioning using techniques such as triangulation to establishan approximate user position. In either case, these devices requirecareful planning and programming for a successful deployment. Withbatteries, these devices require careful consideration to theiroperation (e.g. broadcast power and interval) as well as maintenance.Battery life is dependent on the time period of the beacon broadcast,however by reducing the broadcast period in order to save battery lifegreatly reduces the likeliness of the beacon being reliably detected bya mobile device. As with any device that requires maintenance, today'sbeacon hardware must also be easily accessible, making these beaconsvolatile to tampering or vandal. In commercial environments wherelong-term deployments are desirable, these limitations are significantwhen deployed at scale, especially considering the millions of batteriesto be changed every year.

As a means of monetizing and/or controlling wireless beacons,third-party beacon companies often lock down their beacon broadcastsusing encryption and other proprietary techniques. This is seen forinstance with Apple's iBeacon, where an app in iOS can only hear beaconUUIDs it knows of in advance. Otherwise, if the UUID is unknown, iOSobfuscates the beacon UUID rendering it useless to other Apps. In otherconfigurations, beacon companies require a paid subscription and an SDKto be installed to third-party apps, the SDK then used to decode thebeacon and in many cases provide advertising services. Some beaconcompanies require advertisers to use their proprietary advertisingexchange or interface to deliver advertising and coupons to the mobiledevice. Others require their own proprietary app to be used for beaconinteraction. In all cases, this approach is short sighted as it createsa closed beacon ecosystem built around proprietary hardware andsubscribing Apps that are limited to specific functionality. This leadsto a physical beacon per App industry focus, where a single indoorlocation may require multiple beacon devices in order to supportmultiple Apps, each beacon requiring setup and interacting with adifferent App, which is both inefficient and largely impractical.Combined with the inaccuracy of using a single beacon to establishposition based on RSSI, and the short lifetime of beacon batteries asdescribed, beacons in their current state are limited.

The present solutions provides a maintenance-free beacon solution thatdoes not require setup and yet may be used to deliver accurate indoorpositioning to any mobile device through the integration of wirelessdevices directly into light fixtures and light bulbs, either natively orthrough the use of an add-on component. The combination of beacons andlighting creates an opportunity to leverage existing lightinginfrastructure, providing an unlimited power source for the beaconinstalled in a tamperproof location. With lighting's ubiquity and evendistribution throughout spaces, the ongoing transition to LED lightingfrom conventional sources provides an opportunity for the deployment ofbeacons without requiring additional beacon hardware. It also providesthe opportunity to implement within the same device wireless sniffingthat detects mobile devices such as smart phones and wearable technologythrough Wi-Fi, cellular, and/or Bluetooth detection or similar.

Beacons may be installed directly inside of the lighting fixture or bulbor attached directly to a light fixture housing. The beacon hardware,referred to as the ACB (advanced control beacon), may be an integratedcircuit comprised of a processor and wireless radio on a single chip.Alternatively the ACB may include one or more processors, wirelessradios, memory, crystal, antenna, and/or one or more sensors, dimmingcontrol inputs, and dimming control outputs as a means of providingfeedback to the ACB processor and enabling the ACB processor with theability to control the lighting intensity and on/off state of the LightSource. In one embodiment, the ACB includes a solar cell that harvestsenergy directly from the light source to power the ACB.

Each ACB beacon transmits a wireless broadcast containing a method ofunique identification, such as a unique identifier that can then be usedfor mobile positioning. The ACB broadcast may also include LightingData, such as energy metering and lifetime monitoring data, and AmbientData, such as mobile devices detected by sniffing for wireless signals,MAC addresses, and similar information. The wireless broadcast may alsoinclude data regarding the power of the wireless broadcast andcalibration data. The broadcast regardless of its protocol and format isreferred to as the BecoID. To provide security and prevent beaconhijacking and spoofing, some or part of the BecoIDs may change on adefined or random interval, the interval in some cases defined byvariables such as lighting run time and/or time of day. The BecoIDs maybe calculated by the ACB processor using an algorithm or polynomialequation seeded with a unique number, such as the ACB processor's mediaaccess control (MAC) address, a Device ID or similar. One format forbroadcasting a BecoID is in the form of a URL (uniform resource locator,used interchangeably in this document and in practice with URI (uniformresource locator) and URN (uniform resource name), the functionality ofURL, URI, and URN achieving the same result), the URL comprising aunique identifier that may be combined with Lighting Data and/or AmbientData as described. Another format for broadcasting the BecoID is in theform of an iBeacon, comprising a UUID, Major, and Minor value, of whichthe UUID, Major and/or Minor are bits that may change over time forsecurity. The URL, also known as a URI Beacon, and iBeacon protocolsdescribed are two examples of Beco ID format, however the format anddelivery of BecoIDs may vary widely as described in this document andmay be expressed as a BecoID or simply a UUID, both terms usedinterchangeably.

Each ACB may also include the ability to listen for nearby wirelessdevices. This may be done by switching the operation mode of itswireless radio from broadcast to receive, where the wireless radiobecomes available for connection to nearby devices and/or attempts toconnect with nearby devices and/or scans for nearby devices. The use ofmultiple radios may be employed to detect different wireless signals,these radios each with their own antenna or sharing the same antenna.Upon detecting nearby wireless devices, the ACB may record the event tomemory. It may also adjust lighting operation, such as adjusting theon/off state and/or brightness of one or more light fixtures. Such datathat is collected by the ACB is collectively referred to as Ambient Dataand may be stored in the ACB database for future retrieval, includingbeing broadcast in the ACB wireless beacon as previously described.

Upon detecting one or more BecoIDs, nearby mobile devices may use thisdetection to trigger an event or record the detection as an event. Inone case, the mobile device may simply reference the detected BecoIDagainst a known database in the mobile device memory to determine itsproximity, e.g. I hear BecoID 123, BecoID 123 is near a Kitchen,therefore I am near the kitchen). In more advanced variations, themobile device may issue what is defined in this document as a LocationRequest, which may be a URL hit, API call, or similar to the LocationEngine, the Location Engine being comprised of a collection of one ormore remote servers connected through the internet and responsible formanaging BecoIDs, metadata, such as ACB physical locations, and in somecases content that may be associated with one or more BecoIDs. TheLocation Request is done through an Application Programming Interface(API), hitting a URL, or similar means of connecting one or more remotedevices to one or more servers. The Location Request may include allBecoIDs detected or a filtered sampling of BecoIDs, for instancesubmitting only BecoIDs that are detected above a minimum RSSI thresholdor for instance the BecoID that is consistently the highest RSSI for agiven time period. In a simple form, the Location Engine may simplydecode the BecoID and return back to the mobile device information, suchas the BecoID's decoded value, metadata etc. In an alternateconfiguration, upon receiving one or more BecoIDs, the Location Enginedecodes each BecoID to a known ACB, typically cataloged by a uniqueSerial Number, which may be its MAC address, a Device ID, or similarunique identifier. BecoID is used throughout this document to describe aunique identifier broadcast by the ACB, however as noted, as BecoIDs maychange with time, in most all cases they point back to a unique SerialNumber that is static. In a more advanced configuration, the LocationEngine may establish that the combination of BecoIDs correspond to aknown Location Identifier, the Location Identifier being a unique numberassigned to a physical location comprised of two or more BecoIDs. TheLocation Identifier may be expressed in as a unique identifier (such asa number) or in the form of a Virtual Beacon ID. A Virtual Beacon IDsimply presents the Location Identifier in a format understood by themobile device. In one example, the Virtual Beacon may be delivered in aniBeacon format, the Location Identifier presented as a UUID withsupporting Major/Minor data (per the iBeacon definition, iBeacon beingan Apple standard). Upon detecting two or more BecoIDs, if no suchLocation Identifier exists, the Location Engine may automatically createa new Location Identifier. In a more manual process, BecoIDs and/orLocation Identifiers may be checked into the Location Engine database.

Upon receiving a Location Request, the Location Engine may respond tothe mobile device. The response may include the decoded value(s) of oneor more BecoIDs, a UUID, a Major/Minor, a Location Identifier, metadata,a Virtual Beacon ID, etc. With the Location Engine response, the mobiledevice is able to deliver contextual information, such as advertisementsand coupons. It is also able to interact with the physical space aroundit by directly communicating with nearby devices, through the LocationEngine, or through a third-party system. The delivery of theadvertisements may directly integrate with third-party Ad-Servers, suchas programmatic Ad-Exchanges, where the mobile device upon requesting anadvertisement from the third-party Ad-server includes a uniqueidentifier, such as a UUID, Major/Minor, and/or Virtual Beacon ID in therequest, enabling the Ad-Server with user location data. Otherinformation such as a unique identifier on the mobile device, such as anadvertising ID may also be used. With the Location Engine response, themobile device is also able to establish the user's position as itpertains to proximity in physical spaces, absolute position, and/orother nearby users. This adds increased functionality for Apps in theform of automation, for instance automating tasks that are locationspecific or improving the user experience as it relates to theirlocation. It also provides the opportunity for third parties to learnuser schedules as it relates to the operation of their service and/orthe delivery of targeted advertising.

In most all variations, the Location Engine may use all available data,whether known at the time of creating a BecoID and/or LocationIdentifier, or collected and stored over time by maintaining a databaseLocation Requests and associated data, in order to optimize the LocationEngine functionality and position accuracy. This data may be supplieddirectly by the mobile device through the Location Request, by thirdparty data sources, or using a Gateway Device that is at the samephysical location as one or more ACBs and configured to collect datafrom the ACBs that is then connected into the Location Engine. Data mayinclude measured RSSI, mobile device MAC addresses, whether Bluetooth,Bluetooth LE, or WI-FI, nearby Wi-Fi access points, mobile device ID,user IDs and other information about the mobile device, its user, andits environment. This data over time may be used to strengthen theposition accuracy of any given BecoID and/or Location Identifier, inpart by using additional data points to interpret RSSI measurements,such as by using fingerprinting techniques. BecoIDs may also bedynamically reassigned to new Location Identifiers or shared between oneor more Location Identifiers in order to optimize the LocationIdentifier position accuracy over time.

In addition to providing location services, the Location Engine may alsorecord all Location Request activity, this data then made available forLocation Analytics capable of providing feedback to building managementsystems, such as lighting systems, security, HVAC, demand response, andother systems and/or generating visualizations and reports about theusage of the space. Location Analytics may also be used to visuallydisplay key performance indicators, such as total visits, duration ofvisits, repeat visits, utilization of space and similar information thatmay be assembled based on connectivity between the mobile device and theLocation Engine. Additionally, the Location Engine may use this data toprovide real-time, scheduled, or predictive feedback to a third partysystem. This may be done through an API or connected directly using alocal connection to a Building Management System (BMS), where data suchas real-time occupancy of a room, may be provided back to the building,for instance directly to a BMS, such as one using BACnet, LonWorks orsimilar to interface with building systems to provide building services.The Location Engine may also use available data to predict useroccupancy, including the arrival or departure of one or more users,enabling the BMS to adjust building services in advance of a predictedevent (such as enabling cooling in a specific room several minutesbefore the arrival of a user).

Additionally, upon receiving a Location Request, the Location Engine maydecode data that is embedded by the ACT into the BecoID. This data mayinclude but is not limited to Lighting Data and Ambient Data. LightingData includes any and all operational data of the ACB and its host LightSource, including but not limited to energy metering, operating hours,temperature, light intensity, intensity histogram, CO2, and othermeasurable data points. Ambient Data may include any and all local dataabout detected nearby devices, including wireless devices, such asmobile devices, computers, displays, and similar. This data may includeone or more detected MAC addresses, the MAC being complete, abbreviated,or hashed. It may also include a simple count of detected devices overtime, the devices being filtered by transient devices verses staticdevices, the static devices determined by the ACB to be a constant andnot reported. The ACB may also include a database that includes some orall of a hashed MAC address, time stamp, and RSSI level. Lighting Dataand Ambient Data is then put into a database and harvested with eachLocation Request. With the Lighting Data, Lighting Analytics may beperformed, including for any given bulb or light fixture its energyconsumption over time, operating hours, operating temperature, errorcodes, and/or any other useful information that may be used to improvethe quality and performance of what will soon be billions of LED bulbsand fixtures deployed worldwide. With the Ambient Data, LocationAnalytics may be improved by capturing not only devices making LocationRequests (for instance those with an appropriate App or operating systemto do so), but also for those devices that are nearby that include awireless radio however are not in connection with the Location Engine.

Although generally described as providing a location identifier orinformation in response to a location request, any type of informationassociated with ACB device may be retrieved by a location engine orserver and used for further processing. Additional information caninclude, e.g., profile information associated with the ACB device,status information, environmental information, sensor information, etc.

In contrast to building networks today, such as lighting controlsystems, BACnet and others, the present embodiment does not requireintegration into building networks because the Lighting Data and AmbientData is forwarded to the Location Engine with each Location Requestusing any nearby mobile device, the nearby mobile device providing theLighting Data and Ambient Data to the Location Engine. In some casesthis is done providing the server with the data, for instance an App orthe mobile OS hitting a URL that includes this data. In another case itsdone in exchange for positioning data, including a Beco ID, LocationIdentifier, Virtual Beacon ID, and/or metadata about the location, wherefor instance an App or the mobile OS hits the server with for instance aURL or API call and receives a response.

In the case where a dedicated connection to the Location Engine isavailable, the ACB may also communicate with the Location Engine usingexisting building infrastructure, such as a location area network (LAN),Wi-Fi network, or similar. In one example, the ACB would include a WI-FIradio to communicate on the LAN. Alternatively, a Gateway Device may beused such that one or more ACBs may communicate directly to a nearbyGateway Device, such as a wireless gateway that includes an Internetconnection, such as one through a LAN or wireless connection such as a4G cellular modem. The communication may be as simple as the GatewayDevice detecting the ACB beacon broadcast and forwarding the data to theLocation Engine. In one example, the Gateway Device would maintain acontinuous scan mode, detecting nearby ACB beacon broadcasts. In anotherexample, the Gateway Device would connect directly to each ACB, forinstance polling the ACBs and requesting data. In another example, twoor more ACB beacons forming a mesh network that relays messages from oneACB to another and eventually to the Gateway Device. In another case,the Gateway Device could be a mobile device. In all cases, the GatewayDevice would be in communication with the Location Engine. Thiscommunication may be continuous or on a defined interval.

In some aspects, the present solution is directed to innovative systemsand methods of attaching a beacon to a light bulb includingfunctionality, such as rotating UUIDs, collecting lighting data and/orvia location requests, the ACB solar module, using a light sensor toperform energy metering, using multiple beacon broadcasts to refineposition, adjusting beacon operation based on environmental inputs andavailable stored energy, coordination with other ACBs through beaconing,methods of power conversion, etc.

In some aspects the present solution is directed to innovative systemsand methods of virtual beaconing. One unique technique implemented bythe solution is hearing 2 or more beacons and reporting the beaconidentifiers to a server that in return issues a virtual beacon. Thiscreates a shared platform that allows many companies to use onecollection of beacons as though they were their own proprietary beacons.The use of multiple beacons for reliability and refined positioning,location creation without setup, automatic management of locations, andthe ability to virtualize beacons through a lighting platform etc. arefurther unique functionality and advantages of some aspects of thepresent solution.

In some aspects, the present solution is directed to innovative systemsand methods of building analytics. One technique implemented by thesolution is measuring its local environment by detecting nearby wirelessmobile devices using one or more wireless radios and then reporting thewireless activity to generate and/or strengthen user location analyticsthat are used to improve building functionality and space planning. Thisdata may also be used to influence the operation of building systemssuch as HVAC, lighting, security and others. This data may be usedstandalone or combined with other data sources, including interactionwith mobile devices through Apps, the mobile operating system etc. Thisdata may also be used to directly adjust the lighting intensity of oneor more nearby light sources, the detection of a nearby wireless mobiledevice used as an alternative means of user occupancy detection.

The features and advantages of the present solution will become moreapparent from the detailed description set forth below when taken inconjunction with the drawings, in which like reference charactersidentify corresponding elements throughout. In the drawings, likereference numbers generally indicate identical, functionally similar,and/or structurally similar elements.

At least one aspect of the present solution is directed to a device. Insome embodiments, the device includes a housing that includes aprocessor and a wireless radio. The device can include one or more clipsthat are configured to securely attach the housing adjacent to and apredetermined distance from a portion of a light tube that produceslight. The device can include one or more solar cells that areconfigured to be exposed to the light from the light tube upon thehousing being securely attached via the one or more clips adjacent tothe portion of the light tube. The device can include a circuit by whichpower is converted from the one or more solar cells to the processor andthe wireless radio via at least one switch. The wireless radio can beconfigured to broadcast a beacon provided by the processor.

In some embodiments, the one or more clips are one of removable orattachable to the housing. The one or more clips can be configured toattach to a light tube of one of a particular type or diameter. Thepredetermined distance between the housing and the portion of the lighttube that produces light can be a distance by which the light from thelight tube provides power at a level to operate the processor and thewireless radio. The device can include a storage component to storeenergy. In some embodiments, the device can include a power converter toconvert a first voltage from the one or more solar cells to a secondvoltage that operates one or more of the processor, the wireless radioor storage component.

In some embodiments, the beacon provided by the processor includes astring encoded with a key. The beacon can include a uniform resourceidentifier that identifies a web address followed by data that includesthe encoded string. The beacon can include a universally uniqueidentifier followed by a major and minor value. The beacon can includemeasured data, sensed data, observed data, or detected data. In someembodiments, the processor is configured to change at least a portion ofthe beacon to be broadcasted by the wireless radio. The processor can beconfigured to change at least a portion of the beacon as a function ofone of an equation, an algorithm or time. In some embodiments, thedevice can broadcast the beacon at a predetermined frequency for adefined period of time. The processor can adjust the frequency of thebeacon broadcast as a function of the power available from the one ormore solar cells.

Another aspect is directed to a system that includes a solar-powereddevice and a server. The solar-powered device can include a housingcontaining a processor and a wireless radio. The solar-powered devicecan include one or more clips configured to securely attach the housingadjacent to a portion of a light tube that produces light. Thesolar-powered device can include one or more solar cells configured tobe exposed to light from the light tube upon the housing being securelyattached via the one or more clips adjacent to the portion of the lighttube. The processor can be powered via the one or more solar cells andconfigured to provide a beacon. The beacon can correspond to anidentifier associated with the solar-powered device. The wireless radiocan be powered via the one or more solar cells and configured tobroadcast the beacon. The server can include a database that includesone or more identifiers and one or more keys. The one or more keys canbe used to map the beacon to the one or more identifiers. The server canbe configured to receive from a second device a request comprising thebeacon. The second device can receive the beacon from the broadcast ofthe beacon from the solar-powered device. The server can be configuredto respond to the second device with the identifier from the database.

In some embodiments, the processor is configured to change at least aportion of the beacon comprising a string encoded with a key of the oneor more keys. The solar-powered device can be configured to broadcastdifferent encoded strings for the same identifier. In some embodiments,the second device is a mobile device configured to receive the beacon.Responsive to the beacon, an application on the mobile device cantransmit to the server the request identifying the beacon. The servercan receive from the second device the request including a uniformresource identifier that includes or identifies the beacon. The uniformresource identifier can be an encoded uniform resource locator that isdecoded and redirected by the server.

The server can use a key of the one or more keys to decode the beaconand use the decoded beacon to map to the identifier in the databaseassociated with the solar-powered device. The second device can receivewithin a predetermined time multiple beacons from multiple solar-powereddevices. The second device can transmit one or more requests to theserver for each of the received beacons. The server can determine asingle identifier responsive to receiving the multiple beacons and cantransmit to the second device the single identifier.

Yet another aspect is directed to a method. The method can includeattaching a device adjacent to and a predetermined distance from aportion of a light tube that produces light. The method can includeattaching the device via one or more clips. The device can have ahousing that includes a processor and a wireless radio. The method caninclude the device receiving power via one or more solar cells of thedevice exposed to light from the light tube. The method can include thedevice converting, via a switch, power from the one or more solar cellsto the processor and the wireless radio. The method can include thewireless radio broadcasting the beacon.

In some embodiments, a server receives a request from a second device.The request can include the beacon received from the broadcast of thebeacon from the device. The request can include a uniform resourceidentifier identifying the beacon. The uniform resource identifier canbe an encoded uniform resource locator that is decoded and redirected bya server. The server can transmit, responsive to the request, to thesecond device an identifier associated with the device.

In some embodiments, the device can broadcast, via the wireless radio,the beacon at a predetermined frequency for a defined period of time.The predetermined frequency can be determined as a function of theenergy available from the solar cells. The device can harvest energyfrom the one or more solar cells to a storage device.

In some embodiments, the method can include attaching the one or moreclips to the housing. The one or more clips can be configured to attachto a light tube of one of a particular type or diameter. Thepredetermined distance can include a distance by which the light fromthe light tube provides power at a level to operate the processor andthe wireless radio.

In some embodiments, the method includes the processor generating thebeacon to include a string encoded with a key. The processor cangenerate the beacon to include a uniform resource identifier thatidentifies a web address followed by data that includes the encodedstring. The processor can change at least a portion of the beacon as afunction of one of an equation, an algorithm or time.

BRIEF DESCRIPTION OF THE FIGURES

The foregoing and other objects, aspects, features, and advantages ofthe present solution will become more apparent and better understood byreferring to the following description taken in conjunction with theaccompanying drawings, in which:

FIG. 1 is a block diagram depicting components of the Advanced ControlBeacon, in accordance with an embodiment.

FIGS. 2A-2B are block diagrams depicting a system for the AdvancedControl Beacon, in accordance with some embodiments.

FIGS. 3-4 depict example user interfaces for analytics provided via theAdvanced Control Beacon, in accordance with some embodiments.

FIG. 5 is a flow diagram depicting a process of analyzing a locationrequest, in accordance with an embodiment.

FIG. 6 is a block diagram depicting a process of generating a virtualbeacon ID, in accordance with an embodiment.

FIG. 7 is a block diagram depicting an interaction between a locationengine, a mobile device and a third party system, in accordance with anembodiment.

FIG. 8 is a block diagram depicting an interaction between a locationengine, a mobile device and a third party system, in accordance with anembodiment.

FIG. 9 is a block diagram depicting an interaction between an ACB and alocation engine, in accordance with an embodiment.

FIG. 10 is a block diagram depicting an interaction between an ACB,3^(rd) Party system, and location engine, in accordance with anembodiment.

FIG. 11 is a block diagram of a system for indoor light enabledpositioning, in accordance with an embodiment.

FIG. 12 illustrates an apparatus for indoor light enabled positioning,in accordance with an embodiment.

FIG. 13 illustrates an apparatus for indoor light enabled positioning,in accordance with an embodiment.

FIG. 14 illustrates an apparatus for indoor light enabled positioning,in accordance with an embodiment.

FIG. 15 illustrates an apparatus and components thereof for indoor lightenabled positioning, in accordance with an embodiment.

FIG. 16 illustrates an apparatus for indoor light enabled positioning,in accordance with an embodiment.

FIG. 17A is a block diagram depicting an embodiment of a networkenvironment comprising client device in communication with serverdevice;

FIG. 17B is a block diagram depicting a cloud computing environmentcomprising client device in communication with cloud service providers;

FIGS. 17C and 17D are block diagrams depicting embodiments of computingdevices useful in connection with the methods and systems describedherein.

The features and advantages of the present solution will become moreapparent from the detailed description set forth below when taken inconjunction with the drawings, in which like reference charactersidentify corresponding elements throughout. In the drawings, likereference numbers generally indicate identical, functionally similar,and/or structurally similar elements.

DETAILED DESCRIPTION

The present solution is directed to systems, methods, and apparatus forlight enabled indoor positioning and reporting. In some embodiments, thepresent solution includes or uses an advanced control beacon (“ACB”).For example, an ACB (e.g., ACB 1135 illustrated in FIG. 11) can be anelectronic device that is installed into or adjacent to one or morelight fixtures, light bulbs, light engines, light panels, lighthousings, light displays, decorative light fixtures, multi-purposelighting products, or similar such devices, collectively referred to asthe Light Source. The ACB can also be installed into or adjacent to anyhardware device such as an occupancy sensor, daylight sensor, furniture,kiosk, or similar devices also for purposes of this document referred toas the Light Source. The ACB can include electronic components installedwithin or adjacent to the Light Source. The Light Source can have anyconfiguration, such as any lighting technology ranging from solid state,organic, or filament (with or without a gas) type sources, whether aLight Emitting Diode (LED), organic LED (OLED), fluorescent, neon,plasma, HID, inductive, incandescent, halogen, or any other source oflumen generation.

The ACB's electronic components can include (or solely include orconsist of) an integrated circuit that includes one or more processors(e.g. central processing unit) and a wireless radio on a single chipwith supporting components such as an antenna, clock, and memory. TheACB can use a combination of two or more processors, a first processormanaging the operation of the ACB and a second processor managing thewireless broadcast and when applicable wireless protocol and stack. Theuse of two processors can be used to divide up operational tasks, add alayer of security, and/or conserve available energy when operating in alow energy environment, for instance by putting the second wirelessradio processor into a low power mode while continuing to operate firstprocessor. In one embodiment, the ACB clock may use a crystal installedto the ACB or may reference the AC line voltage 50 or 60 hertz sine waveif available, either using a direct connection to the AC line voltage orusing an antenna or resonator on the ACB to detect the waveform.

The ACB may be installed directly to the same circuit board thatcontains at least one or more LEDs. In some embodiments, the ACB may beinstalled to a second circuit board with electronic components such asan LED driver and/or as a second daughter circuit board attached to afirst circuit board containing at least one or more LEDs. In anotherembodiment, the ACB may be a module, whereas the module includes one ormore processors, one or more a wireless radios, and supportingcomponents such as an antenna, clock, memory, sensors, and/or a powerconverter installed to a printed circuit board (PCB) that is theninstalled into the Light Source.

In one embodiment, the ACB module may be directly soldered and/or wiredto a circuit board within the Light Source. In another embodiment, theACB module may be directly wired to an LED driver and/or wire harnesswithin the Light Source. In another embodiment, the ACB may be in theform of an occupancy sensor module, where the module attaches to theceiling or wall, with or without a junction box. In another embodiment,the ACB module may include one or more solar cells (e.g., solar powermodule 1145 illustrated in FIG. 11) to power the ACB and may be attachedto one or more LEDs or attached directly above or adjacent to one ormore LEDs with the solar cells oriented towards the Light Source. Theattachment of the ACB module may be mechanical, adhesive, or use otherknown attachment techniques. In one embodiment the ACB module is heatstaked to the printed circuit board. In another embodiment, the ACBmodule may be clipped directly to a fluorescent or LED light tube, suchas a T8 format, using a mechanical clip, strap, or similar means ofattachment (e.g., fastener 1125 illustrated in FIG. 11) that then allowsthe ACB module to harvest solar energy from the light tube (e.g., lightsource 1120 illustrated in FIG. 11). In another embodiment, the ACBmodule may be installed to the lens, housing, or other physical featuresof the Light Source, using any available means of mechanical or adhesivefastening, including the use of one or more magnets.

The ACB processor(s) may be tasked solely with the purpose of a wirelessbeacon broadcast, or may be used for multiple operations, such asmanaging the wireless broadcast, wireless sniffing, and concurrentlymanaging the Light Source, for instance setting the brightness,schedule, and other features to create one or more lighting states. Thelighting states may be set using a dimming input or wireless interfaceor may be set by the ACB based on environmental inputs, predefinedrules, and/or a programmed schedule. The ACB may include one or moresensor inputs, the sensors installed as part of the ACB assembly orinstalled elsewhere on or nearby the Light Source. The ACB may interfacewith third party control systems and/or Light Sources using a dimmingcontrol input or output, such as a 0-10V control voltage, a phasecontrol dimmer such as a TRIAC (triode for alternating current) or SCR(silicon-controlled rectifier) type dimmer, a pulse-width modulated(PWM) signal, a FET (field-effect transistor), relay, solid-state relay,transistor, Ethernet, Power-Over-Ethernet, DMX, RDM, DALI, BacNet,LonWorks, Heart, Serial, Parallel, RS-232, RS-422, RS-485, I2C, SPI,power line communication, and similar or any combination of inputs andoutputs, such as PWM used to drive a FET. In some implementations, oneor multiple wireless control techniques may be used, includingBluetooth, Bluetooth Low Energy, Wi-Fi, Zig-Bee, ANT, Z-Wave, 6LowPan,Wi-Max, Cellular, 4G, 802.15.4, and similar or any combination ofwireless radios, such as a Bluetooth Low Energy and a Zig-Bee radio usedon the same ACB.

The ACB may be powered by AC mains voltage, such as 120, 240, 277, 347,or 480V AC. The AC circuit that powers the ACB may also power the LightSource, in which case the ACB may use onboard energy storage to remainpowered for some or all of the duration where AC line voltage is notavailable. The ACB may use one or many types of power converters,including a switching regulator, such as one of a fly-back, buck/boost,hysteretic, SEPIC (single-ended primary-inductor converter), powerfactor correction circuit, or similar to reduce the AC main to a lowervoltage required for logic level components. In some embodiments, theACB may reduce the AC main to a lower voltage using a passive means,such as by using a full wave bridge rectifier and a series capacitor,resistor or LDO (low-dropout regulator), or by using a transformer,inductor, or other means of electromagnetic voltage reduction orcoupling. Other means of powering the ACB include powering it using apower supply, such as that used to drive LEDs. This includes connectingthe ACB in series or parallel to the output of an LED driver and drawingcurrent away from the LED source using a current limiting device, suchas a resistor, LDO, linear regulator or similar. Wiring the ACB inparallel across one or more LEDs may also do this, the ACB using thevoltage drop of the LED to reduce the voltage to for instance 3 volts (acommon LED voltage) that may be used to directly power the ACB andtherefore require minimal power conversion electronics. Other powerconversion techniques include using a buck, boost, buck/boost, orsimilar switching regulator/converter that includes at least one switchand accepts a wide range of input voltage from the LED driver whileproviding a regulated voltage to the ACB processor and other electroniccomponents. The regulator may be outfitted with a soft-start or delay inturning on as to not interfere with the normal operation of the LEDdriver. The on-time duty cycle of the ACB may be adjusted using a switchthat connects/disconnects the LED load from the ACB. This allows the ACBto draw current to charge an energy storage device, then disconnect fromthe LED load until additional current is required. In some embodiments,a capacitor may be placed in parallel with the regulator in order tominimize flicker and other artifacts that may appear in the Light Sourcewhile drawing power. In all cases, the power converter may be installeddirectly to the ACB or ACB module or may be installed elsewhere withinthe Light Source, for instance directly to an LED driver circuit boardor circuit board that contains one or more LEDs.

Another means of powering the ACB is to use energy harvesting from otheravailable power sources, such as lighting control signals (including0-10 volt control), one or more solar cells, vibration, resonance,temperature changes, ultrasonic waves, radio waves and similar. Energyharvesting offers the advantage of physically small and low costcomponents and in some cases free energy to power the ACB. Energy may bestored in a storage device or used directly by the ACB processor andsupporting components. The storage device may be a capacitor, supercapacitor, battery, inductor, transformer or similar. In some cases oneor more storage devices of the same or different type may be used. Inone embodiment, the function of the storage device is to store energysuch that the ACB continues to function when available energy is toolittle or none at all. This allows the ACB to keep alive criticalfunctions, such as its onboard clock during periods of little availableenergy. In a similar embodiment, the storage device providessupplemental energy for peak power demands, such as during a wirelesstransmission. In a similar embodiment, upon loss of power, the storagedevice keeps the processor operating long enough such that the processoris able to detect the power loss and thereafter save one or more valuesto non-volatile memory prior to shutting down. This reduces the numberof write operations to non-volatile memory that may wear out over time.A second storage device may be used to provide an alternative source ofenergy, for instance a battery, whereas the battery may be used foroperation during periods when there is no input voltage. A diode,switch, or other means of switching automatically the battery in and outof use may be employed. The battery may be switched into the circuitautomatically or may be engaged by the processor.

In one embodiment, the ACB includes one or more onboard solar cells(e.g., solar power module 1145 of FIG. 11) that generate a voltage and acurrent to power the ACB. The solar cell(s) may be oriented to directlyharvest energy from the Light Source, for instance in one embodimentbeing directly positioned above or adjacent to one or more LEDs withinthe Light Source. The one or more LEDs may be one of white light, redlight or infrared, in one embodiment, the Light Source comprising whiteLEDs for general lighting with one or a small quantity being that of Redor Infrared LEDs installed to power the ACB (and therefore maximizingthe solar cell efficiency). In another embodiment, the ACB may beinstalled directly or adjacently to a fluorescent or LED bulb by meansof a clip, snap, strap, magnet, tape, hardware fasteners, gravity, orsimilar, in this case the ACB being installed within or external to theLight Source. In either case, the ACB may be comprised of a moldedhousing, the housing including one or more printed circuit boards, thecircuit boards containing the ACB electronic components. The printedcircuit board(s) may snap or slide into the housing, the housingconsisting of five enclosed sides and therefore leaving a sixth surfaceexposed to allow the solar cell(s) access to the light source. In oneembodiment, the printed circuit board includes a first top side and asecond bottom side, whereas the first top side includes a processor andwireless radio. These components may be discrete parts or in the form ofan off the shelf module, such as a Microchip RN4020 Bluetooth module.The second bottom side includes one or more solar cells. An energystorage device (as earlier defined) and/or a power converter, such as aboost, buck, buck/boost, SEPIC, hysteretic, linear, LDO, resistor, orsimilar power converter may be installed to the first top or secondbottom side. The power converter converts the voltage from the solarcell, a first voltage, to a second voltage that charges the storagedevice and operates the processor and wireless radio, the first voltagebeing a different voltage than the second voltage. The power convertermay include at least one switch that may be internal or external to thepower converter's integrated circuit (IC). The power converter logic maybe performed by the ACB processor, the ACB processor using an externalswitch to regulate current flow with the option of using an analog todigital input and/or an op-amp to sense voltages. In one embodiment, byadjusting the switch duty cycle, the power converter is able toefficiency convert the first voltage to a second voltage. The powerconverter may include at least one inductor, capacitor, or transformerfor storing energy between switching cycles, the inductor for instancecharging when the switch is on and discharging when the switch is off.The power converter may use one or more feedback loops or signals inorder to adjust its operation depending on the first voltage asmeasured. In a similar embodiment, the ACB processor may measure thefirst voltage and/or the second voltage and adjust the operation of thepower converter, including enabling, disabling, and/or adjusting thepower converter output and/or on-time duty cycle based on measuredinputs. In another embodiment, the ACB processor may indicate status ofthe ACB by toggling the on/off state of an LED indictor, for instanceupon initial installation of the ACB, the LED indicator may flash greenlight to indicate to the user that the ACB processor is harvestingenergy as expected.

In another embodiment, voltage may be converted in two or more stagesusing two or more power converters and/or switches. In a similarembodiment, a first power converter boosts the voltage from the solarcell, a first voltage, to a higher second voltage. The second voltage isstored in a first storage device, such as a capacitor or inductor. Asecond power converter then reduces the second voltage to a lower thirdvoltage. The third voltage provides voltage to the processor, wirelessradio, and other voltage sensitive electronic components such as CMOSand logic level parts. In some embodiments, the third voltage may bestored in a second storage device, such as a capacitor or supercapacitor. In operation, the first power converter operates continuouslyas long as there is voltage available from the solar cell to harvest. Insome cases, the first power converter may operate in a burst mode ofoperation, where the power converter switches between a low quiescentcurrent mode, which is an off state, and then on again in order tomaximize energy harvesting. The second power converter may operatecontinuously, burning off excess power should no load be available ormay operate in a disabled state and is only enabled once the first powerconverter charges the first storage device to a specified level. In oneembodiment, the processor measures at least one of the first voltage,second voltage, and/or third voltage. The processor is then able toenable, disable, or adjust the operation, for instance the duty cycle ofthe first and/or second power converter to optimize efficiency. Upon thedischarge of the first storage device to a specified level, the secondpower converter is then disabled. The power converters may include oneor more switches, the switch used to enable or disable current flow intoan inductor, transformer, or capacitor, the inductor, transformer orcapacitor discharging during periods of switch off time and changingduring periods of switch on time. Switches may be internal or externalto the power converter integrated circuit. The advantage of thisembodiment as described is that very low voltage, such as 0.8V from thesolar cell can be efficiently boosted to a higher voltage, such as 15V.At higher voltages, capacitors are able to hold greater amounts ofenergy since energy=½cv̂2 where c is capacitance and v is voltage. Thisenergy is then stepped down to a lower voltage and stored in a supercapacitor at for instance 3.3 or 5 volts, which are common workingvoltages for electronic components.

To maximize light collection onto the solar cell, the ACB housing may beshaped in a way that directs light onto its one or more solar cells. Oneway this is done is by shaping the ACB housing to follow the contour andshape of the one or more LEDs, Bulbs, and/or Light Source that itattaches to. In one embodiment, the ACB housing may fully surround oneor more LEDs such that the majority of the light generated is captured(and therefore not emitted for illumination purposes). In anotherembodiment, the ACB housing may position the solar cell directly tangentto the Light Source (in the case where it is a light tube format) usinginterchangeable clips to snap the ACB directly to the Light Source. Inanother embodiment, the ACB housing may be configured in a half-moonarch shape that follows the contour of a fluorescent or LED bulb ofwhich it is attached. In another embodiment the ACB may include a lensand/or reflector to focus and/or collimate light onto the solar cell.The reflector may be part of the ACB housing, having an aperture largerthan that of the solar cell surface and configured to bounce light atleast once from a curved surface directly onto the solar cell. Thecurved surface may be one of parabolic, stepped, square, triangular, orlinear, the reflector being a linear shape installed on opposite sidesof a rectangular solar cell. The lens would be installed directly abovethe solar cell and may be constructed from plastic, such as PMMA orpolycarbonate, or it may be glass. In a similar embodiment, the solarcell may be encapsulated with a transparent or translucent encapsulatesuch as an optical grade silicone, where the encapsulate shape collectsand directs light onto the solar cell.

In another embodiment, the ACB harvests energy from an industry standard0-10V control voltage. For example, 0-10V dimming is an analog controlsignal that is a two wire, approximately 100 microamp current sourcethat sets the intensity level of one or more connected Light Sources.Typically any voltage less than 1 volt sets the lowest light level andgreater than 9 volts is the highest light level, with any voltage inbetween 1 and 9 corresponding to an intensity level, noting that thedimming curve may be linear, logarithmic, pseudo-log, or any other typeof curve. In many embodiments, the 0-10V dimming signal is connected toone of an LED driver ballast, or other electronic circuit within theLight Source. In some embodiments, the 0-10V signal may connect to acontrol circuit board or similar configuration within the Light Source.To effectively harvest energy from the 0-10V source, the ACB is firstconnected to the 0-10V wires that are provided by the Light Source. TheACB is then able to dim the connected Light Source by setting the 0-10Vlevel while concurrently harvesting energy from the 0-10V currentsource. To do this, the ACB uses an onboard power converter. In someembodiments, the power converter is a boost converter and takes the0-10V voltage which is a first voltage and boosts it to a highervoltage, a second voltage, where the second voltage is always higherthan the first voltage. In another embodiment, the power converter is abuck/boost converter, where the 0-10V level may be higher or lower thanthe power converter output. The power converter is modulated on and offby the processor to pull down the 10V current source to the desiredintensity level, during which the power converter also harvests currentfrom the 0-10V line. The modulation may be one of a square wave, such asa pules-width modulated signal, a triangle wave, or similar and may bedone by directly modulating a switch, transistor, FET, or integratedcircuit, for instance adjusting a shutdown (SHDN) pin.

To accurately set the 0-10V level and to eliminate the possibility offlicker, the processor measures the voltage of the 0-10V line andadjusts the on-time duty cycle of the power converter. One way this isdone is by modulating the power converter on and off until the targetintensity level, which is that of an average voltage on the 0-10V lineis set. In some embodiments, a smoothing and/or filtering capacitor maybe installed on the 0-10V line to eliminate the potential of creatingnoise or pulses on the 0-10V line that would lead to flicker in theLight Source.

In a similar 0-10V embodiment as described, the ACB may provide a 10Vcurrent source to attach a dimmer, appearing to the dimmer to be a LightSource, LED driver, or Ballast. This offers the advantage where the ACBmay override incoming 0-10V levels and/or harvest current from the 0-10VLight Source as previously described while still enabling the abilityfor a third-party dimmer to control the Light Source. As a means ofconserving energy and maximizing energy harvesting, the processor isable to enable or disable the 10V current source that it provides to thedimmer. By enabling the current source, the ACB energizes the 0-10Vdimmer in order to take a reading on the 0-10V level requested by thedimmer. To conserve energy storage, the ACB processor may periodicallyenable the 10V current source to measure the dimming level rather thanoperate the current source continuously. One way this is done is bygenerating the 10V current source with an onboard regulator, then takinga measurement using a feedback path into the processor via an analog todigital input, and then disabling the regulator. To ensure that the0-10V level is consistently monitored, the processor adjusts itsmeasurement duty cycle based on measured dimmer activity and otherfactors such as time of day and other historical data. For instance, theprocessor may activate the current source to take a dimming readingevery second. Under normal conditions, the dimming level as set by thedimmer remains constant. In the case where the processor reads a changein dimming level from a first measurement to a second measurement, itmay increase the current source duty cycle to 10 times a second,assuming that the dimmer intensity level may be changing. By increasingthe current source duty cycle, the processor is able to capture the fulldimming cycle with a higher level of accuracy by sampling a greaternumber of dimmer set points. Using dimming smoothing, the processor isable to fill in any missing points. This makes the transition from onemeasured level to another appear smooth to the user's eye, despite thelack of measured data points. Once the measured dimmer level settles atan established set point and a new intensity level is defined, theprocessor adjusts the current source duty cycle to a reduced level toconserve energy. By using historical data, such as previous dimminginteraction or the presence of users in a space, the processorproactively increases its duty cycle in anticipation of pending changes.

In a similar embodiment, the ACB may be configured to read a dimminginput signal, such as a 0-10V level, and then generate a dimming outputsignal to one or more connected Light Sources. In this scenario, thedimming input may be used to set a maximum ACB dimming output. Bydefining the maximum ACB output, the dimming input, such as athird-party dimmer or building control system, is able to maintaingeneral control of all connected ACB and their controlled Light Sources,while concurrently enabling the ACB to reduce the output dimming signalto save energy.

Under the condition where the power source is removed or if limitedpower is available, the ACB processor establishes a brownout period.This would occur for instance when the Light Source is de-energized atthe end of a work day or in the case of solar energy harvesting, whenthe Light Source is at a reduced intensity. The ACB processor may alsoconfirm the brownout using any of its onboard sensors, such as a lightor color sensor or solar cell if available. In one embodiment, the ACBprocessor records its Lighting Data, such as some or all of itsoperational data such as run-time, energy consumption, and otheroperational data points of interest, as well as its Ambient Data, suchas detected nearby wireless signals such as Wi-Fi, Bluetooth and others,to non-volatile memory prior to shutting down. In another embodiment,the ACB processor may reduce the ACB functionality and/or Light Sourcefunctionality in order to conserve onboard energy storage, the ACBentering a low power state, the low power state in some cases being anoff state. Reducing functionality may include disabling its wirelessradio, reducing the wireless broadcast interval, wireless sniffinginterval, and/or power of wireless radio broadcasts, reducing thefrequency of sensor measurements, entering one or more processors into asleep or hibernation mode, and/or similar means of load shedding. Thereduction of functionality may be done at the time the input voltage isremoved or it may be anticipated by the ACB processor based onhistorical information, for instance the ACB reducing its wirelessbroadcast interval (its largest power demand) based on anticipation ofreduced intensity of the Light Source using historical data. This may bedone through the use of an algorithm where the algorithm may considerone or more of the following: Available Energy (at present), ProjectedEnergy (based on historical usage), User Occupancy (at present),Projected User Occupancy (based on historical usage), Dimmer Input (atpresent), Projected Dimmer Input (based on historical usage). AvailableEnergy and Projected Energy may be estimated by measuring one or morevoltages, for instance measuring the first voltage at the solar cell anda second voltage at one or more storage devices. The ACB processor mayalso reference temperature as a factor in estimating available energy,taking in account the performance of electronic components and/or theLight Source at any given temperature. In the case where the ACBincludes a dimming output, the ACB processor may increase the LightSource intensity in order to increase the available light for the solarcell to harvest and convert into energy, effectively overriding thenormal operation of the Light Source as a means of preserving ACBoperation. Multiple stages of load shedding are possible, for instance afirst stage reducing the wireless beacon broadcast interval from, forexample a first state of 10 broadcasts per second (10 Hz) to secondstate of 1 broadcasts per second (1 Hz) to third off state, thebroadcast interval being possible to dynamically adjust based onavailable power.

To measure its environment, the ACB may include one or more sensors formeasuring occupancy/motion, ambient light levels, ambient light color,temperature, humidity, air quality, carbon dioxide, acceleration,vibration, direction, sound, and similar means of measuring the physicalworld within the Light Source and external to the Light Source. Thephysical sensors may be physically installed to the ACB or ACB module ormay be installed external to the ACB or Light Source and connected usingwires, circuit board traces, or wireless technology to the ACB.

User occupancy may be measured using a passive infrared sensor (PIR),active IR sensing, ultrasonic detection using an ultrasonic emitter anddetector, microwave detection using a microwave emitter and detector,terahertz detection using a terahertz detector and emitter, camera,microphone, wireless radio, or color sensor. Additionally, activeinfrared sensing may be used to detect occupancy through the use of aninfrared sensor using an infrared emitter and infrared detector usingtime of flight techniques. Time of flight eliminates the concern ofinfrared light being absorbed by dark objects and offers the ability forthe ACB to detect users even when they remain still. To do this, the ACBuses an infrared receiver to measure infrared levels within its field ofview, then briefly illuminates a high power infrared LED and compareslevels. Should humans or objects be introduced into the view of thereceiver, the receiver is able to either measure the intensity of thereflected infrared minus the measured background, or using time offlight, the receiver measures the phase shift and in some cases theamplitude of the infrared light reflected back to the receiver. Bymultiplexing two or more IR emitters and/or transmitters additionalaccuracy may be introduced. Sensing techniques may be combined within asingle ACB or Light Source to improve sensing accuracy, for instancecombining a PIR sensor and a color sensor.

In some embodiments, occupancy sensing may include detecting (sniffing)wireless signals, such as mobile devices (including mobile devicesbroadcasting a wireless beacon or connecting to the ACB), nearby Wi-Finetworks, and/or MAC addresses of nearby wireless equipment such asmobile devices and other hardware. In this scenario, the ACB may switchone or more of its wireless radios into a receive mode for apredetermined period, where it may provide an available connection for anearby wireless device and/or attempt to connect with a nearby wirelessdevice, and/or scan for nearby wireless devices. In the case ofBluetooth, the ACB may alternate its Bluetooth radio between a ClassicBluetooth mode and Bluetooth Low Energy mode of operation, each modeused to detect different device types and in some cases to confirm asingle device. In the case where wireless devices appear to be constant,the ACB may decide to generally ignore these specific devices, listeningonly for transient wireless devices. Additionally, the ACB may measurethe wireless signal strength (RSSI) of nearby wireless devices,establishing an RSSI threshold that would establish whether or not adevice is nearby. Often this is done by comparing the transmit power ofthe wireless device to the actual measured power level of the receivedsignal.

In one embodiment, the ACB may use the detection of wireless signals asa means of occupancy detection, enabling one or more Light Sourcesand/or HVAC systems to turn on and off based on the presence of adetected wireless device. In the case of lighting, the ACB upondetecting the nearby wireless device may gradually increase theintensity of one or more Light Sources, enabling the ACB to operate theLight Source in a reduced power mode during periods of inactivity andtherefore saving energy without requiring the complexity of adding aconventional occupancy sensor that requires a direct field of view ofthe area it is monitoring and therefore dedicated hardware.

In one embodiment, the ACB detects nearby wireless devices by enablingits wireless receiver, identifying wireless devices, storing some or allof the identified wireless device MAC addresses into a database onboardthe ACB, and then disabling its wireless receiver to save power. The MACaddresses may be stored complete, hashed, or is assigned a uniqueidentifier to each. MAC addresses may be tagged with a time stamp and/orRSSI value. Each subsequent time the ACB enables its wireless receiverit continues to build the database, in some cases deleting older entriesto save memory space. The MAC addresses in some form, whether completeor hashed, and optionally including its time stamp and RSSI value may bethen broadcast by the ACB to other nearby devices.

Ambient light levels may be measured by the ACB using a color sensor (ofwhich one or all of the RGB channels of the sensor are used), a photosensor or a solar cell, collectively referred to as Light Sensor. In anycase, a secondary lens or light guide may be placed in front of theLight Sensor to define the sensor's viewing angle, in some caseswidening the view, in other cases narrowing the view. In someembodiments, a light guide extension may be installed in order to allowan ACB Light Sensor to be recessed into the Light Source, the lightguide extension in some cases extending through the Light Source lens.The light guide extensions may be plastic or glass, in the formation ofa single optical light pipe or multiple optical fibers. The purpose ofthe Light Sensor is to provide feedback to the ACB processor such thatthe processor is able to perform one or more of the functions asfollows.

In one embodiment, the Light Sensor is oriented away from the LightSource and is used to provide feedback to the ACB processor such thatthe ACB processor automatically adjusts the intensity of the LightSource to regulate the Light Source light intensity to a targetintensity level. This technique saves energy by decreasing the LightSource light intensity as natural daylight in a physical locationincreases and increasing the Light Source light intensity as naturaldaylight decreases, regulating to but not exceeding the target intensitylevel. In addition, by measuring all or part of the spectraldistribution, the Light Sensor may establish the type of lightinginstalled within a physical space as well as the Light Source'sproximity to a window or skylight. Fluorescent lighting, LED lighting,and daylight for instance generate unique lighting spectrum profiles andinclude telltale wavelengths that may be detected by the Light Sensor.Upon detecting fluorescent lighting for instance, the ACB processor mayimplement a 100-hour burn period for a fluorescent Light Source prior todimming its fluorescent lighting load.

In another embodiment, the Light Sensor is oriented away from the LightSource and functions as a communication input to the ACB processor. Thisis done by detecting data encoded in a series of high speed pulsedpatterns or long term intensity changes generated by other nearby LightSources, those Light Sources equipped with an ACB or similar lightingcontroller capable of encoding data into the Light Source light output.In one embodiment, this may be done using pulse-width modulation (PWM),frequency shift keying (FSK), or other means of modulating a lightsource, including any method commonly used for visual lightcommunication (VLC), often requiring at least one switch, FET, TRIAC, ortransistor. Such methods of communication creates a medium to deliverbi-directional communication between Light Sources that is useful forboth the setup and long term operation of the Light Sources. Forinstance, upon installation, two or more Light Sources equipped withACBs and a Light Sensor may establish that they are physically installedwithin the same physical location or in fact adjacent to each other. Inanother embodiment, data is encoded into the Light Source light outputusing long-term intensity ramps. This allows the ACB to discretely varythe light intensity of the Light Source by small increments over longtime periods (e.g. minutes, hours, or days). This enables small datasets to be transferred and in some cases repeated over a defined timeperiod, and therefore eliminating the complicated hardware required forhigh speed VLC. It also allows multiple Light Sources to communicatesimultaneously without collision. Furthermore, it allows the ACB to addintelligent communications to any Light Source that includes aconventional dimming input without requiring factory modifications, forinstance the ACB controlling the Light Source using a 0-10V input orusing any of the conventional dimming and communication methodspreviously described. In one embodiment, the ACB processor embeds abinary pattern consisting of 1's and 0's into the Light Source lightoutput by first setting a target intensity, then adjusting the lightoutput above and below the target level, for instance above the targetlevel being assigned a 1 and below being assigned a 0. Establishing aseries of 1's or 0's uses timing generated by the ACB clock, such thatfor instance an intensity level above the target level for a time periodof two, equals two consecutive 1's. A checksum may be used as a means oferror detection. The change from one intensity level to another may bein the form of a ramp, such as a saw tooth waveform that may include adwell time once a specified level has been achieved to eliminate theperception of flicker while still maintaining an average targetintensity. In some embodiments, messages may be repeated on a definedloop to add reliability to the data stream. To illustrate thistechnique, as a way of example, the ACB processor sets the Light Sourcetarget intensity at 50%. By modulating the light level up to 60% anddown to 40%, each with specified dwell times, the ACB processor embeds aseries of 1's and 0's that are then read by adjacent ACB processorsusing Light Sensors installed in nearby Light Sources. In anotherembodiment, a Light Sensor used as a sole means of detecting occupancy.To do so, an optically clear or mildly translucent segmented lens isplaced over one or more Light Sensors configured to measure color anddirected at a target monitoring area. This same lens may be optionallyshared with a PIR sensor. The lens segments divide incoming ambientlight into segments that are focused onto the Light Sensor. The LightSensor averages the color light from the segments and determines withgreat accuracy an exact color of the ambient light. The ACB processorreads the Light Sensor's output and sets a background level with adefined tolerance, a background level indicative of normal operationwithout a user present. When a user enters into view and crosses fromone lens segment into another, the light reflected off of the userchanges the ambient light color enough such that the ACB processorestablishes that motion is detected and responds accordingly. Thebackground level is actively adjusted by the ACB processor and may varyover the course of the day as ambient light color changes, especially inenvironments with windows. Smart algorithms take long term, historicalaverages. Looking at long-term averages verses brief changes in ambientlight color, the processor is able to filter out false triggers and moreaccurately detect users. The advantage of using a Light Sensor (colorsensor) for detecting motion is it allows the Light Sensor to be usedfor multiple functions, including measuring the occupancy of a space,color temperature of its light, and light intensity of its environment.One way this is done is through a hybrid lens where the Light Sensor'ssegmented lens may include a combination of segments as already definedand a collimating lens, Fresnel lens, light pipe or guide, the lens orlight pipe directly in front of the sensor and the segmented lens aroundits perimeter. This would allow the sensor to gain a direct view of thesurface in front of it where light level may be measured, whileconcurrently detecting users as they approach the ACB using thesegmented lens.

In another embodiment, the Light Sensor is oriented facing or adjacentto the Light Source. Rather than measure the ambient lightingconditions, the ACB uses the Light Sensor to measure the Light Source'srelative intensity and/or color. This may include light solely generatedby the Light Source and/or ambient light that is reflected into theLight Source, for instance daylight that is reflected by one or moresurfaces onto the Light Source lens or housing. The Light Sensor in thisscenario may also be a solar cell, the solar cell powering the ACB andalso providing a voltage and a current that are referenced by the ACBprocessor to achieve a similar result as achieved with a photo sensor orcolor sensor. In all cases, this enables the ACB processor to monitorand record the Light Source's relative intensity verses time andthereafter calculate both the Light Source's run-time and energyconsumption by integrating time over intensity. Energy consumption maybe established using an automatic calibration process where the ACBprocessor monitors the Light Sensor's light levels verses time in orderto establish a maximum intensity of the Light Source, from which allother intensity levels and therefore estimated power levels arecalculated. The ACB processor may assign a power level to the maximumintensity based on a known light fixture model, preprogramming or it mayprovide energy consumption measured in relative units, such as providingan average energy consumption as a percentage of the maximum over adefined time period. The energy consumption calculation may use anadjusted light intensity verses power curve in order to factor variousefficiency considerations including that of the Light Source, its powerelectronics and/or LED driver, and sensor variations. The energyconsumption calculation may also include a multiple that factors lumendepreciation verses time, often referred to as lumen maintenance.

In another embodiment, the ACB achieves a similar effect by directlymeasuring power consumed by the Light Source without the use of theLight Sensor, instead using a current sensing resistor, magnetic coil,or other means of measuring current installed directly to the LightSource. The measurement device may be on the input or the output of theLED driver and may be installed to a printed circuit board or a wireharness. The ACB processor may also measure the voltage present at theLight Source input and/or LED driver output, multiplying the LightSource voltage times the measured current to calculate the Light Sourcepower at any given time. In some embodiments, an efficiency multipliermay be used, specifically if the power measurement is made at the LEDcircuit and/or the output of the LED driver, for instance factoring inLED driver efficiency at various intensity levels in order to improvethe accuracy of the measurement.

By monitoring all available inputs over time, the ACB learns about itshost Light Source, nearby Light Sources, and its environment. In doingso, the ACB processor creates a learned operating schedule that may beused to set ACB operation and/or generate Lighting Data and/or AmbientData that is saved to memory. Lighting Data may include the Light Sourcetotal run time, average run time, energy consumed, average lightintensity, average temperature, peak temperature, and other operationaldata about the Light Source. It may also include information about wherethe Light Source is installed, such as the building schedule andenvironment based on sensor and input measurements, includingtemperature, occupancy (such as average number of users per day, time ofuser arrival etc.), light levels, dimming control inputs, and similar.Ambient Data may include environmental information including nearbyWi-Fi networks, MAC addresses of nearby wireless equipment such asmobile devices, nearby Light Sources equipped with ACBs, nearby BecoIDsand their measured RSSI, and other measurable data. Lighting Data and/orAmbient Data may be stored in memory as it is collected in a raw form ormay be compressed. It may include a time stamp as it pertains toreal-time and/or run-time.

One method of compression is the creation of error codes. This allowsthe ACB processor to detect one or more conditions based on availableinputs and create an error code should predefined conditions, such asrules, be met, the error code being optionally time stamped. An exampleof this would be an overheat condition, such that rather than save acollection of temperature values, the ACB processor determines that thepeak temperature has exceeded a predefined threshold and thereforegenerates an error code that may then be communicated in the ACB beaconbroadcast.

Another method of compression is the creation of profile codes. Togenerate a profile code, the ACB processor monitors one or more inputsover time to learn an operating schedule. The operating schedule maydefine operational features, such as run time per day, sensor and radiooperational duty cycles, target intensity levels verses time, expectedtime of user arrival, and similar. This data is then compressed into aprofile code that defines ACB operation verses time, for instance on adaily, weekly, or monthly schedule. Profile codes may be combined withreal-time sensing and input data and may be dynamically updated by theACB processor with each real-time event leading to possible changes inthe profile code over time. Should a profile code be transferred from afirst ACB to a second ACB, the second ACB would mimic the operation ofthe first ACB, including operational features that were learned by thefirst ACB over time.

Another method of compression includes recording and then organizingLighting Data and/or Ambient Data into events, each collection of eventsincluding a defined time range or time stamp of which they occurred. Inone embodiment, the ACB stores detected MAC addresses that are hashed orabbreviated. In another embodiment, the ACB saves storage space byproviding multiple time stamps per a single MAC address, eliminating theneed to record the MAC address multiple times.

The ACB communicates with other nearby wireless devices using one ormore onboard wireless radio(s) (e.g., wireless radio 1150 in FIG. 11).These wireless devices may include other ACBs, mobile devices,multimedia devices, light bulbs, LED drivers, light fixtures,thermostats, and similar. Mobile devices include a processor, wirelessradio, and some type of software/firmware and may be one of a mobilephone, wristband, watch, eyeglasses, earpiece, pin, article of clothing,computer or similar devices. Devices may be configured in a directconnection, point-to-point, star, mesh, or any other type of wirelessconfiguration, including bi-directional combination between the ACB andthe wireless devices. The ACB may provide to these devices information,such as Light Data, Ambient Data, occupancy, dimming levels, andtemperature information. In some embodiments, these devices may commandthe AC3B to change state, such as an App adjusting the light intensity,color, scheduling or other operational features of the ACB. Rules mayalso be created and uploaded to the ACB, where a rule may consist of aconditional statement such as if/then. Devices may include an InternetProtocol (IP) address, including an IPv4 or IPv6 address, with orwithout a connection to the Internet. In one embodiment, with anavailable Internet connection (direct connection or using a gateway,such as a mobile device or other dedicated hardware), the ACB may beremote operated, monitored and/or configured using an application on aremote server. The ACB may be configured to report to the server sensorinformation, such as user occupancy data, UUIDs, IP addresses, LightingData, Ambient Data, etc. The ACB may also download from the remoteserver updates, such as updated operating profiles, rules, stack updatesand patches, application updates and patches, and/or one or more UUIDsor UUID seed keys.

In one embodiment, the ACB uses its wireless radio (e.g., wireless radio1150 illustrated in FIG. 11), such as a Bluetooth Low Energy radio, tobroadcast a one-way wireless payload, also known as a Beacon. The ACBcan generate the beacon using a beacon generator, such as beacongenerator 1140 illustrated in FIG. 11. The Beacon broadcast includesdata in the form of a unique identifier, referred to as a UUID orBecoID. The UUID may include ACB identification information, LightingData, Ambient Data, a uniform resource locator (URL), operational data,status data, profile codes, error codes, Cartesian coordinates, such aslatitude, longitude, and level, and/or broadcast power data, thebroadcast power being the power level that the wireless radio isconfigured to transmit.

Broadcast power may be presented in the UUID as a number with units, forinstance ranging from −100 to 10 dBm, as a number on a relative scale,for instance from 1 to 10, as a percentage, or in binary form, thebroadcast limited in this case to a high power and low power broadcaststate. The Beacon broadcast may be continuous, for instance transmitting10 times per second (10 Hz) for an extended period or it may becontinuous followed by periods of increased, decreased, or no broadcast.The time period of the broadcast (e.g. duty cycle), broadcast data,and/or broadcast power level may be varied and controlled by theprocessor based on environmental and measured values, such as useroccupancy, time of day, energy storage, error code, profile code,Lighting Data, Ambient Data, nearby ACBs, and/or any other variable. Theprocessor may for instance reduce the time period of the Beaconbroadcast from 10 broadcasts per second to 1 broadcast per second inorder to reduce the ACB power consumption.

The Beacon UUID may be a fixed identifier or may change over time, thecharacter length of the UUID being unrestricted. In one embodiment, theUUID is comprised of 16-bytes, optionally followed by a 2-byte majorvalue and a 2-byte minor value, collectively referred to as an iBeacon.In another embodiment, the UUID comprises a 16-byte unique identifierfollowed by 4-bytes of Lighting Data and in some cases an optional1-byte broadcast power level. In another embodiment, the UUID comprisesa URL that includes a web address, such as https://www.beco.com,followed by data that may include a unique ID and other data, where thedata may include Lighting Data, Ambient Data, an error code, profilecode, and/or similar. The web address may be compressed using anencoding scheme in order to maximize the amount of data included in asingle wireless payload. In one embodiment, to communicate largeramounts of data than permitted in a single broadcast, data included inthe broadcast may change over the course of multiple broadcasts, forinstance a first broadcast that includes a Unique ID and Lighting Data,followed by a second broadcast that includes a Unique ID and AmbientData. In a similar embodiment, data of a similar type too long to fitinto a single broadcast may be split into multiple broadcasts, such thata first broadcast includes a Unique ID and Ambient Data followed by asecond broadcast that includes a Unique ID and additional Ambient Data.The rotation and frequency of the data type that follows the Unique IDmay vary, as may the Unique ID. Many variations in message length andformat are possible, the variations being unlimited.

In one embodiment, part or all of the UUID or URL changes as a functionof an equation, algorithm, time, events, inputs and/or other factors,referred to as rotating the UUID. Rotating the UUID allows the UUID tobe broadcast publicly, but then change in order to prevent Beaconspoofing and/or hijacking Spoofing and hijacking is done by scanning forand documenting UUIDs (and in some cases their locations), and thenusing other beacon hardware to mimic the UUID of the Beacon and/or usethe Beacon UUID without permission.

In one embodiment the UUID is calculated by the ACB processor (or beacongenerator 1140 in FIG. 11) using one of a symmetric-key algorithm,public-key algorithm, polynomial equation, pseudorandom numbergenerator, stream cipher, symmetric seed-key, or other type of algorithmor equation, including any used for encryption. The equation may beseeded with a seed or key that is applied to the ACB at the point ofassembly, in the field using an App, or it may use the MAC address ofthe processor and/or wireless radio. The encryption of the UUID may bedone using hardware or software. In the case of hardware, the UUID maybe generated using the processor's onboard crypto engine normallyreserved for encrypting communication.

In a similar embodiment, the UUID is calculated using a predeterminedalgorithm or equation that calculates a finite number of UUIDs, such as100 or 1,000 UUIDs that are then rotated. The equation may be seededusing the ACB processor MAC address or preprogrammed with a unique seed.The UUIDs may be rotated through a defined rotation pattern or a randompattern, the random pattern defined by a random number generator, analogvoltage and/or similar signal on the ACB, or similar. The UUIDs may berotated one of several ways including on a defined time interval, witheach power cycle of the ACB, run-time, time of day, and/or any otherevent driven trigger for rotation.

In the case of rotating the UUID with each ACB power cycle, the ACB mayinclude hysteresis to ensure that a minimum time period transpiresbetween power cycles in order to prevent users from quickly cycling theACB on and off to measure and record all of the UUIDs in a short timeperiod. This may be managed by operating the processor in a low powermode upon entering a brownout condition where the processor remainsalive for at least a predetermined period. Should power return duringthis period, the UUID would not rotate and therefore would remain thesame. For instance, if the ACB loses power, the processor disables theACB Beacon upon power loss, operates from the energy storage device forthe duration of the power loss, and then reactivates the ACB Beaconwithout rotating the UUID. In another instance, if the ACB loses powerlong enough for the processor to deplete the energy storage device orexceed a defined time period, the processor disables the ACB Beacon uponpower loss, operates from the energy storage device, and shuts down uponexpiration of the energy storage device. With the return of power, theprocessor powers on the ACB Beacon and rotates the UUID. Alternatively,the ACB may track its run-time, and therefore rotating the UUID based ona function of run-time rather than actual time. The techniques asdescribed offers an advantage over the encrypted UUID as the ACB is notrequired to synchronize the encrypted UUIDs with a remote database,therefore eliminating the need for a real-time clock onboard the ACB andthus allowing the ACB to enter an off-state when power is not available.In some embodiments, by having a finite number of UUIDs per each ACB,UUID database queries are significantly faster, having only to searchthrough hundreds or thousands of records when verifying the identity(such as the MAC address and/or Serial Number) of a single ACB Beacon.

In another embodiment, the ACB broadcasts two or more UUIDs, the UUIDsbeing rotating or fixed, comprising a first transmission, a secondtransmission, and in some cases a third, fourth, and so on, the firsttransmission having a UUID that is different than the secondtransmission. In one embodiment, the first and second transmissions areboth iBeacons with different UUIDs. This enables the ACB to function astwo or more iBeacons, each iBeacon assigned to a different App orfunction. In another embodiment, the first transmission is an iBeaconfollowed by a second transmission that is not an iBeacon. In anotherembodiment, the first transmission is a BecoID followed by a secondtransmission that includes operational information used to coordinatewith nearby ACBs and other wireless devices, for instance the secondtransmission including an intensity level to program the brightness of anearby Light Source. In this instance, ACBs operate in a state of beaconbroadcast followed by a listen state, the ACB listening for nearbybeacon broadcasts and responding accordingly.

In another embodiment, the first transmission is broadcasted at adifferent power level than the second transmission. In one instance, thefirst transmission UUID is the same as the second transmission UUIDexcept for its specified broadcast power level (included in the UUIDbroadcast). This creates a scenario where a single identifier may bebroadcast and identified at both a high power and a low power mode ofoperation. In the case where a mobile device uses its wireless radio tolisten for Beacons, it may detect only one of the two transmissions whenfar away and both transmissions when nearby, the low power transmissionsunable to travel as great of distance as the high power transmission.For instance, in the case where only the high power first transmissionis observed, the mobile device is aware of the nearby ACB, but expectingto also hear the low power second transmission (which it does not),assumes the ACB to be far away. As the mobile device moves closer to theACB, it detects both the first transmission and the second transmission.While two broadcast states are used in this example, additional powerstates are possible, such as a mid-power state and so on. This data mayalso be used to strengthen position accuracy when processed by theLocation Engine.

In a similar embodiment, an Internet connected wireless Gateway Devicemay be used to detect ACB wireless broadcasts. The Gateway Device mayinclude one or more wireless radios, one or more processors, and anInternet connection. The Internet connection may be provided by a LAN,using a cellular modem such as a 4G LTE connection, and/or similar meansof connecting to the Internet. As the Gateway Device may be nearby someACBs but physically distant from others, the ACB may alternate highpower and low power wireless transmissions as just described such thatthe low power transmission may be used for localized positioning fornearby mobile devices, whereas the high power transmission may be heardby the Gateway Device, making the Gateway Device's physical placementless critical. In a similar embodiment, the Gateway Device may be usedto detect other wireless signals, such as the Wi-Fi MAC address ofnearby wireless devices, enabling the Gateway Device to forward thisinformation along with the ACB wireless data to another device, such asa remote Internet connected server.

In similar embodiment, the first transmission is broadcasted at adifferent power level than the second transmission, the firsttransmission including different data than the second transmission, butunderstood by the receiving device, such as a wireless Gateway Device,remote server, or mobile device to be the same ACB and therefore realizethe benefits as just defined.

Mobile devices (e.g., client device 102 in FIG. 11) listen for wirelessbeacon broadcasts using their wireless radio. This may be done bycontinuously scanning for beacons or by scanning for beacons on adefined schedule or time period. This may also be done by periodicallywaking up the App to scan for beacons, for instance scanning in thebackground of an App installed to a mobile device.

In the case of BecoIDs, mobile devices (e.g., client device 102illustrated in FIG. 11) are able to use BecoIDs to enable proximity,positioning, Virtual Beaconing, and/or the collection of Lighting Dataand/or Ambient Data. In one embodiment, upon detecting two or moreBecoIDs, the mobile device initiates a filtering process. BecoIDs may befiltered based on a wide range of inputs available on the mobile device.In one embodiment, the mobile device scans for BecoIDs and records theirRSSI value. A single RSSI value may be measured for each BecoID or themobile device may record multiple BecoID RSSI values, averaging and/orusing standard deviation techniques to establish a defined RSSI valuefor each BecoID, in some cases discarding outlier measurements. In oneembodiment, once the mobile device defines an RSSI value for each BecoIDdetected, it may choose to discard BecoIDs with an average and/ordefined RSSI less than a minimum defined RSSI threshold. This thresholdmay be provided to the App from the Location Engine dynamically or hardcoded in advance. In another embodiment, the mobile device may retainall BecoIDs detected, forwarding to the Location Engine all BecoIDs withor without their defined RSSI value (filtered or not filtered). Inanother embodiment, the mobile device listens for a first BecoIDbroadcast of a high power and a second BecoID broadcast of a low power,in which case it uses the high/low power scheme (as earlier defined)instead of measuring for RSSI as a means of determining its proximity toACB Beacons. In another embodiment, the mobile device decodes in thebeacon broadcast one or more URLs. In one case, the mobile device hitsthe URL; the URL providing a location hit that delivers location,Lighting Data, and/or Ambient Data back to the Location Engine using aURL or URI rest end point or similar. In another case, the mobile devicemodifies the URL prior to hitting it, for instance adding to the URLmeasured RSSI data, a unique identifier that identifies the mobiledevice, and/or any other useful information about the location and/ormobile device. This may be done by directly adding these fields to theURL or hitting the URL with a JSON query. In one embodiment, mobiledevice hits the URL with the highest RSSI, in another embodiment themobile device displays available URLs to the user who selects a URL tohit, in another embodiment the mobile device hits all available URLs.Upon hitting a URL, in one embodiment the mobile device (e.g., client102 in FIG. 11) receives a response that includes data, in anotherembodiment it loads a web page, in another embodiment it loads an App,and similar.

The mobile device upon hearing one or more BecoIDs and optionallyfiltering the BecoIDs, uses its available Internet connection makes aLocation Request to the Location Engine. The Location Engine is acollection of one or more remote servers connected through the Internetthat includes at least one database. BecoIDs are communicated to theLocation Engine through an API, URL, URI or similar technique (e.g., viaagent 1160 executing on client device 102 illustrated in FIG. 11). TheAPI call may be directly from a mobile device or through a third-partyserver that may be in communication with one or more mobile devices. AnAPI call originating from a mobile device may be done using one or moreApps, for instance a mobile device App having integrated a SoftwareDeveloper Kit (SDK), hitting a URL, and/or directly from the mobiledevice's operating system (OS). The API call may be a REST API, may becommunicated using JSON, XML, HTML, or a similar means of connecting theLocation Engine to a mobile device, application, mobile App, third-partyserver, or similar. The API may be configured in a client-serverarchitecture, may be read only or read/write, public or private. APIauthentication may be managed using OAuth, OAuth2, IAA or a similarmeans where a client ID and password are used to directly log into theAPI and/or Location Engine or are exchanged for an access token, theaccess token granting the client access to information based onpermissions. The App may also be preconfigured with an API Key. Shouldno Internet connection be available at the time of detecting theBecoIDs, the mobile device may record the BecoIDs with or without theirRSSI values and upon reconnecting to the Internet issue a LocationRequest.

In addition to forwarding in the Location Request BecoIDs, the mobiledevice may also include data that is filtered or raw data that includesBecoID RSSI values and/or other wireless signals in addition to theBecoIDs detected. This may include GPS, Wi-Fi access points, otherwireless beacons, and/or detected cellular towers/devices. It may alsoinclude physical signals, including accelerometer, compass, magneticfield, light, or similar data points. It may also include data about themobile device, including the mobile device's Advertiser ID, MAC address,user identifiable information, type of Apps installed, mobile devicemanufacturer, mobile device operating system and version, and othermeans of identifying a specific mobile device. When using an SDK, theSDK may assign a unique identifier to the App it is installed which alsomay be communicated to the Location Engine.

The Location Engine includes at least one database that containsinformation about ACBs. The database may include for any given ACB itsMAC address, its serial number, one or more BecoIDs, one or more UUIDs,one or more URLs, its firmware version, date of manufacturer,manufacturer name, its name, its date of first discovery, its date oflast connection, Lighting Data (including energy consumed, operatinghours, profile codes, error codes, average temperature, maximumtemperature), occupancy data, locational coordinates, UUIDs of nearbybeacons (with and without RSSI values), BecoIDs of nearby ACBs (with andwithout RSSI values), Ambient Data, including names and/or MAC addressesof nearby Wi-Fi networks (with and without RSSI values), mobile deviceinformation, mobile device Bluetooth MAC addresses (with and withoutRSSI values), mobile device WI-FI MAC addresses (with or without RSSI)and/or similar data. The location database may also include data fromevery Location Request, providing a large dataset that includescollections of BecoIDs and their measured RSSI values for any givenLocation Request. The database may also include location metadata,including the ACB owner contact details, the mailing address of thebuilding or location, the type of building or location, the age of thebuilding or location, the function of the building, location, orspecific room installed, the type of light fixture that the ACB isinstalled, the demographic of people in the building or location,operating hours of the building or location, and similar informationthat may be collected from third-party sources or manually entered intothe ACB database.

Upon receiving the BecoIDs from a Location Request, when a rotating UUIDtechnique is employed, the Location Engine may map each BecoID to aknown ACB Serial Number. This is done by checking the BecoID against apre-determined list of BecoIDs or by decoding the BecoID. In the case ofstatic UUIDs, this step may be omitted. With rotating UUIDs, the BecoIDsare variable but the Serial Number is static and in some cases the sameas the ACB's MAC address. Each Serial Number may have tens, hundreds,thousands, or an infinite number of BecoIDs associated with it.Alternatively, the BecoID may include hints in its format that enablethe BecoID to be decoded using a time dependent or non-time dependentcalculation. In one embodiment, using the ACB MAC address or apredefined seed, the Location Engine calculates all possible BecoIDs fora given ACB using the same algorithm installed to the ACB withoutconnecting to the ACB. The ACB Mac address or seed may be stored in theLocation Engine database or using crypto hardware to better secure theseed. The Seed may change over time, calculated separately at the ACBand Location Engine.

When an encrypted UUID technique is employed, there are almost anunlimited possible number of UUIDs, in which case the Location Engineand ACB use real-time clocks in order to calculate the current BecoID insequence. The Location Engine may accept two or more UUIDs as beingvalid in order to accommodate the possibility of synchronization issues,including clock drift. BecoIDs may be calculated by the Location Enginein advance or may be calculated as Location Requests are made. In eithercase, the ACB and the Location Engine calculate the BecoIDsindependently without requiring setup or bi-directional communication.

In one embodiment, once decoding the BecoID(s), the Location Enginereturns a response using JSON or similar to the mobile device thatincludes the decoded BecoID values. In one embodiment, the LocationEngine receives a BecoID in the form of an encoded Major/Minor string.Once decoded, the Location Engine returns to the mobile device the trueMajor/Minor values that are fixed and associated with the ACB SerialNumber, those values understood by the mobile App or a third-partyserver.

In a more advanced embodiment, once the Location Engine maps the BecoIDsto Serial Numbers, the Location Engine establishes if the combination ofSerial Numbers correspond to a known Location Identifier. The LocationIdentifier is a unique number assigned to a physical location comprisedof two or more Serial Numbers (each unique ACB having one SerialNumber). In one embodiment, the Location Identifier is only confirmedupon detecting all of its associated Serial Numbers in the LocationRequest. In another embodiment, the Location Identifier is verified upondetecting some (but not all) of its associated Serial Numbers in theLocation Request, the Location Identifier having the option to assign aprobability of certainty that the mobile device position. For example, aLocation Identifier may be associated with five Serial Numbers. By themobile device detecting for instance four of the five Serial Numbers(via BecoIDs), it is with relative certainty that the mobile device isin the correct physical location (with RSSI optionally used to furtherincrease the reliability of the measurement). By detecting only one ofthe five Serial Numbers, it is with minimal certainty that the mobiledevice is in the correct physical location. With each ACB beinginstalled to a Light Source, over time, Light Sources may fail, beremoved, or/or be installed in alternate locations. Should the LocationEngine recognize over time that a Serial Number is consistently notreported, reported in connection with a different, unexpected group ofSerial Numbers, or is consistently reported without the other SerialNumbers it is associated with, the Location Engine may choose toreorganize the Serial Number into a different Location Identifier, whichmay include ignoring it altogether.

In another embodiment, as another means of detecting the physical movingof Light Sources, the ACB or the Light Source that the ACB is installedmay include an accelerometer or other means of detecting motion, the ACBprocessor upon detecting movement issuing an Error Code or similar meansof flagging the Location Engine in the next received Location Request(or series of Location Requests). In doing so, the Location Engine maychoose to flag the Serial Number and observe it over time to ensure ithas not moved and/or update its associated Location Identifier asneeded.

Upon receiving a Location Request that includes Serial Numbers that arenot associated with a Location Identifier, the Location Engine maycreate a new Location Identifier. This eliminates the need to manuallycommission a physical location (e.g. building) once one or more ACBs areinstalled. Unlike conventional wireless beacons that require setup,Light Sources with onboard ACBs may be installed into physical locationsat random without commissioning. Once powered on, BecoIDs are detectedby nearby mobile devices that issue one or more Location Requests. Uponestablishing that the Serial Numbers received are not assigned to aLocation Identifier, the Location Engine creates a new LocationIdentifier that includes some or all of the Serial Numbers presentedwith the option to include weighted factors such as RSSI level and othermeans of defining the Location Identifier. Multiple Location Requestsmay be recorded before creating a Location Identifier, or a singleLocation Request may lead to the creation of a Location Identifier. Insome embodiments, Serial Numbers associated with Location Identifiersmay be reassigned over time as more data is collected with each LocationRequest. In one embodiment, Serial Numbers may be associated with morethan one Location Identifier. In another embodiment, the use of multipleSerial Numbers per Location Identifier may be used for positioningthrough means of trilateralization, triangulation, centroid math, and/orsimilar technique. This may include using the RSSI values of multipleSerial Numbers as collected over time to create scaling factors used inthe Location Engine to apply a calculated weight to each Serial Number'sRSSI as measured in any given Location Request and therefore improveprecise positioning. This is possible through the collection andanalysis of two or more Location Requests for any given LocationIdentifier.

In another embodiment, mobile device positioning may include the use ofother measured data points as earlier described, including otherlocation data such as GPS as well as other third-party location data.For instance, at the entrance of a building, a mobile device may recordits position using GPS and other sources with a high level of certaintyprior to entering into a building. Concurrently or shortly thereafter,the mobile device may also detect one or more BecoIDs at the entrance ofthe building. In this case, the detected BecoIDs (and by design theirSerial Numbers) may be calibrated to known fixed positions that thenenables the Location Engine to organize Serial Numbers around thesefixed points. For instance, in one example, the Location Engine afterreceiving a Location Request for a first BecoID at a calibratedposition, next receives a Location Request for a second BecoID, andtherefore associates the second BecoID with the first. In someembodiments, the Location Engine may receive both the first and secondBecoID in the same location request, the BecoID with a higher RSSIconsidered to be closer to the calibrated fixed point than that with thelower RSSI. The Location Engine may also combine this calibrationtechnique with other RSSI techniques earlier discussed. Many variationsare possible.

The Location Engine may use third-party data, such as known physicalpositions of iBeacons, Wi-Fi access points, and other inputs that maythen be used to calibrate a location. It may also use hardware onboardthe mobile device, such as an accelerometer, compass, and otherdetectors to approximate distance and direction as the mobile devicemoves through a location. This data may be provided to the LocationEngine with each Location Request or may be input into the LocationEngine directly using first hand or third-party sources.

In a similar embodiment, data may be provided to the Location Enginethrough “check-ins”, where a mobile device detects one or more BecoIDsand using an App, laptop, or similar device capable of providing a datainput, the user inputs and sends information about their position to theLocation Engine. This information may be the location address, level,room type, venue type, etc. In one example, the Location Engine createsone or more Location Identifiers. Sometime later, using a check-in, auser tells the Location Engine that the Location Identifiers are locatedinside of a Gym. The Gym may be defined by its name, address, level, andother identifiable information. The user standing inside of the Gym doesthe check-in, the mobile device detecting two or more BecoIDs andissuing a Location Request that may include the user defined inputs. Insome embodiments the user may stand within Gym and using a map orsatellite image, define their physical location within the venue, theLocation Engine then associating the geo position data from the map withthe nearby Location Identifiers, Serial Numbers and in some cases theirRSSI values. With the check-in data, the Location Engine is then able toassign the received information to the related Location Identifiers andin the future provide this data with each Location Request, for instanceupon receiving a Location Request may provide back a Location Identifieralong with a descriptor stating “Gym”. Check-ins may be provideddirectly to the Location Engine or may be achieved through third-partysystems, such as a third-party App that includes a check-in feature likeFacebook.

Once the Location Identifier has been identified and/or created, theLocation Engine responds to the requesting mobile device or third-partyserver with the Location Identifier. The Location Identifier may beprovided as a unique number or it may be provided as a unique numberplus other supporting data, such as locational coordinates, metadata,and other useful information. While the Serial Numbers associated withany given Location Identifier may be updated over time as earlierdescribed, the Location Identifier is a fixed identifier that may beused by the mobile device or third-party server as a fixed point ofreference over time and regardless of the Location Request or mobiledevice from which it originates. For example, upon entering a physicallocation, a mobile device detects what appear to be a random collectionof BecoIDs, however upon making a Location Request, is provided with aLocation Identifier that it recognizes from previous Location Requests.This enables third parties, such as Mobile Developers, Operating SystemDevelopers, App Developers, Ad-Exchanges, Ad-Servers, Mobile Carriers,and any other third parties to use repeatable Location Identifiers toimprove their business operation. As Location Identifiers are refinedover time, Location Identifiers may include Sub-Identifiers, in whichcase a primary Location Identifier may be learned by the third-partyfollowed by Sub-Identifiers that further refine the location.Sub-Identifiers may be presented in the form of an additional LocationIdentifier issued to the mobile device and/or may be in the form of thefull Location Identifier unique number followed by a second number, suchas “−123”.

The use of Location Requests, URL hits, and/or Location Identifiersenables the Location Engine to generate Location Analytics. LocationAnalytics may be used actively, such that the Location Engine mayinterface directly with building systems to directly or indirectlyinfluence building operation and/or passively, where the Location Enginemay provide reporting, insight, and/or analysis on how a building isoperated, how the space is used by users, and/or how energy is consumedwithin the building.

In one embodiment, Location Analytics are based on Location Requestactivity. In measuring Location Request activity as it relates toLocation Identifiers, Location Analytics may be generated that includereal-time position of users in a space. This data may then be used toprovide feedback to building management systems, such as lightingsystems, security, HVAC, demand response, and other systems. Forinstance, two users enter a conference room in an office building. Theirmobile devices initiate a Location Request upon detecting one or moreACBs. Upon receiving the Location Request, Location Analytics through anAPI makes data available to (or pushes data to) a lighting controlsystem that then brightens the lights in the conference room. In anotherexample, the Location Engine may receive one or more Location Requestsfrom two users nearby the conference room, such that with a level ofcertainty, the Location Engine may determine that the user path isdirected to the conference room and would therefore communicate with alighting control system to brighten the lights in the conference roomprior to arrival of the two users. In another example, the LocationEngine may integrate with a third party system, such as a conferenceroom booking system that identifies that a meeting is about to happen atthe conference room. The Location Engine detects through LocationRequests that one or more of the meeting attendees are nearby theconference room and therefore communicates with a lighting controlsystem to brighten the lights in the conference room. In anotherexample, the Location Engine uses historical Location Request data topredict the use of the conference room and therefore communicates with alighting controls system to brighten the lights. Many variations arepossible and any such combination of the techniques mentioned may becombined to optimize the Location Engine's interaction with suchsystems. Additionally, the Location Engine may interface with one ormore building systems, lighting control systems being used by means ofexample. Other systems may include HVAC systems, for instance activatingheating or cooling prior to occupant arrival or departure, as well asdoor systems, for instance opening a door in front of a user in motion,and similar.

In another embodiment, the Location Engine may provide LocationAnalytics and reporting on how the building space is occupied by users.This reporting may be real-time (or near real-time), for instanceproviding to first responders in an emergency the whereabouts ofoccupants in a building, or it may be defined as user occupancy overtime. This enables insight on how users occupy the building space andmay lead to possible improvements in office layout, allocation of squarefootage, and overall leased space. Location Analytics may be definedgraphically or numerically using any type of interface and publishingmedium, including a web browser. Examples of how data may be presentedinclude total visits, total unique visits, average duration per visit,space utilization, and similar verses time. Locations may be viewed as asummary with the option of drilling down for additional information,such as the Location Analytics for a specific room in a building.Location Analytics may also utilize floor plans and layouts that aregraphically illustrated with color coding, heat map gradients, and othermethods for displaying comparative data, for instance a room with highuser activity shown in red followed by a room of low user activity shownin blue. Data may be exported from the Location Analytics platform intoa variety of formats, including CSV, XLS, HTML, and similar.

In another embodiment, Location Analytics may incorporate other inputs,such as third-party attendance systems, Apps, conference bookingsoftware, access control, and similar building systems. For instance, byknowing the job title of any given user making the location request,Location Analytics may be derived that define how users interact witheach other, for instance how many engineers interact with sales people,where this is happening, for how long etc. In addition, furtherconclusions may be drawn by comparing user location over time to theoperation of building systems, and therefore the use of energy. This maybe done by pulling building data into the Location Analytics platform,using for instance an API, connecting the location engine directly tothe building management system (i.e. BACnet), or other similar methodsand then comparing such data to user position, with the intent offurther optimizing the interaction of the building system relative toactual use data. Other third party data sources may include weather,traffic, user traffic, and other such similar inputs.

In a similar embodiment, Location Analytics may be further improved bythe use of Ambient Data. From one or more Location Requests, theLocation Engine may decode Ambient Data (as previously defined) that isembedded in the UUID and/or URL. Alternatively, the Location Engine mayreceive Ambient Data from a network and/or Internet connected device,including a Gateway Device or an Internet connected ACB. The use ofAmbient Data enables the Location Engine to account for mobile devicesthat are not configured to make a Location Request and yet include awireless radio, such as a Bluetooth or WI-FI radio. This may includewearable devices, such as smart watches, fitness bands, as well as smartphones not configured to connect with the Location Engine. In doing so,Location Analytics may take into account nearby mobile devices andtherefore provide a more complete picture user occupancy for any givenspace. In one example, three users, each with a smart phone enter aconference room. Upon entering, the ACB sniffs for Ambient Data, andthereby detects all three smart phones through their wireless radios.The ACB records the detected smart phones to memory and updates theAmbient Data broadcast in its wireless beacon broadcast. Next, one ofthe smart phones detects the ACB beacon and initiates a LocationRequest. Through the Location Request, the Ambient Data is passed on tothe Location Engine. Despite only one Location Request, through AmbientData, the Location Engine establishes the presence of 3 users in theconference room.

In a similar embodiment, Location Analytics may be strengthened by theuse of Lighting Data, including the on/off time of any Light Source thatmay signal the presence of a user and/or building schedule, the LightSource in some cases connected to an occupancy sensor or lightingcontrol system.

Lighting Data may also be used standalone in the form of LightingAnalytics to provide insight into the operation of one or more lightsources. From one or more Location Requests, the Location Engine maydecode Light Data (as previously defined) that is embedded in the UUIDand/or URL. Alternatively, the Location Engine may receive Light Datafrom an Internet connected device, including a Gateway Device or anInternet connected ACB. Lighting Analytics include for any given bulb orfixture its energy consumption, operating hours, operating temperature,error codes, and/or any other useful information that may be used toimprove the quality and performance of Light Sources. For instance, forany given Light Source, the Light Source manufacturer gains visibilityto its typical operation in the field. This data may lead to LightSource cost reductions for the light fixture; the data showing forinstance that the majority of installations operate the Light Source ata reduced intensity (and therefore eliminating the need to support thecurrent maximum intensity). It may also show that based on typicaloperating temperatures in the field that the Light Source heat sink maybe reduced in size, resulting in a cost savings. The data may alsosupport warranty claims, where the Light Source manufacturer is able togather real world data from any given Light Source based on its SerialNumber and/or MAC address, determining the specific run time, averageintensity, temperature, and other information that may assist in awarranty claim situation. The data may support future sales and serviceopportunities, the data showing for a given installation that installedLight Sources are nearing their end of life, enabling the Light Sourcemanufacturer to engage the Light Source owner at an early stage with anew proposed solution to update their Light Sources. In someembodiments, this data may be used to support a new emerging servicecalled “Light-as-a-Service” or LaaS. Today's LaaS model is based onLight Source manufacturers providing their products at a reduced cost orin some cases at no cost to a building owner, of which the buildingowner then over time pays the Light Source manufacturer the net energysavings. Using the data provided, the Light Source manufacturer is ableto measure the energy consumption of every Light Source in the field andtherefore bill the building owner or verify the building owner's report.In a similar embodiment, the building owner may be compensated asthird-party companies gain access to their ACB Beacons. In a similarembodiment, a third-party is able to pay for the full or partialoperation of an ACB enabled Light Source by paying for the bulbacquisition cost upfront, over time, or based on actual power consumed(as measured by the ACB). For instance, in exchange for access to theACB Beacon, a third-party is able to compensate the Light Source ownerfor its operational expenses; a portion of the operational expense, orin some cases its operational expense plus an added fee. By metering thepower consumed over a defined period and then multiplying it by the costof energy, one is able to establish the cost of operating the LightSource. Another embodiment may use crowd funding to pay for theoperation of one or more Light Sources. Many variations are possible andthere are too many examples to list, the Lighting Data as describedhaving an unlimited number of uses. The Light Source manufacturer isable to access this data through a web user interface or an API. Thedata may be presented as raw data or in the form of dashboards, reports,charts, graphs, and similar.

In one embodiment, upon receiving a Location Identifier, a mobile devicemay report back to a third-party server, such as an Ad-Server orAd-Exchange, the Location Identifier along with a request for anadvertisement to display. In its request, the mobile device may includeits location as established by the Location Identifier and/or raw data,such as BecoIDs, and/or other data about the user, such as the User ID.In one embodiment, the Ad-Exchange auctions the advertising slot (suchas that in a mobile App or mobile web browser), the Ad-Exchangeincluding in its auction the location of the user as learned from theLocation Identifier. In this example, by the Ad-Exchange being aware ofthe user's real-time location, the content as delivered to the user willbe more accurate than without this information. In another embodiment, athird-party service such as an Ad-Exchange upon receiving a LocationIdentifier may choose to deliver a push notification, such as a couponthat shows directly on the user screen. In another embodiment, thethird-party server simply records one or more Location Identifiers overtime, using the data to establish the mobile device user's schedule inorder to improve services, including advertising. In another embodiment,Location Identifiers may be used to provide location services to theuser, such as identifying the user's position on an App showing anindoor map. The Location Identifiers may be used to enable navigation orassist the user in locating areas of interest or lost objects orpersons. In another instance, the Location Identifiers may be used as ameans of navigating for instance a smoky building by first responders,having the ability to navigate but also identify the position of userswithin the building. In another embodiment, a third-party, such as asocial media company, detects that the same (or a nearby) LocationIdentifier is issued to two or more registered users, eithersimultaneously (or near simultaneously) or at different times. In doingso, the third-party is able to establish that these users visit the samephysical location and therefore share a common interest, are co-workers,and other conclusions that may be drawn over time. In one instance, thethird-party can compare the user accounts to see if the users shareconnections or are “friends”. In all instances, by establishing LocationIdentifiers relative to one or more users over time, the third-party mayadjust the way it interacts with the user, for instance by adjusting thetype of advertisements displayed, friend recommendations, datingsuggestions, and similar means of interaction. In another embodiment,Location Identifiers are used to unlock available content, for instancedisplaying to a user a virtual messaging board that is only availableonce the mobile device location is confirmed. The user may also post tothe virtual messaging board by being with proximity. This interactionmay be used to establish a means of communication between for instanceco-workers in an office environment, where physical location is arequired element to send and receive messages. This data may also becombined with Location Analytics, Lighting Data, and Ambient Data toestablish metrics on how users interact within a space socially, howthey use the space, and energy is consumed. Many embodiments arepossible.

Location Identifiers may also be issued form of a Virtual Beacon ID.There may be one or more Virtual Beacon IDs associated with eachLocation Identifier, the Virtual Beacon ID presented to the mobiledevice on its own or in addition to the Location Identifier, having allof the benefits of a Location Identifier as already described. TheVirtual Beacon ID format may be adjusted to meet customer specificrequirements. For instance a Location Identifier may be issued to anApple iPhone in the form of a Virtual Beacon ID in an iBeacon format,the UUID and optional Major/Minor data (per the iBeacon definition)configured to represent that of a specific App or registered iBeaconuser.

Virtual Beacon IDs provide the advantage of high reliability and simpleintegration into mobile devices that are already using some form ofwireless beacon, such as iBeacon. In one embodiment, a mobile devicedetects multiple BecoIDs, issues a Location Request to the LocationEngine, and receives back a single iBeacon UUID (with or withoutmajor/minor), the iBeacon UUID being the Virtual Beacon ID. Unlikeconventional beacon hardware that functions typically as a one beacon,one device (or App) operation, virtualizing multiple BecoIDs as a singleiBeacon (or other beacon type) enables a high level of reliability, theLocation Engine capable of counteracting failed, moved, or removed ACBs(as earlier discussed). In some embodiments, through the use of multipleACBs, the Location Engine is able to increase the position accuracy (asearlier discussed) without advanced beacon setup.

The Virtual Beacon ID format is not limited to iBeacon only, rather mayalso be in the form of AltBeacon, Samsung Beacon, Swirl Beacon, ShopKickBeacon, Gimbal Beacon, or any other the dozens of other open and/orproprietary beacon formats available today, each beacon format includingsome amount of data in its beacon broadcast, most often configured as aUUID. The Virtual Beacon ID may include a position distance identifierbeing one of Far, Near, or Immediate. It may also include a probabilityof location certainty.

In one example, multiple Light Sources containing ACBs (and thereforeone or more BecoIDs) are installed into an office building. Concurrentlyan office productivity company called CompanyX has created a proprietarybeacon format and mobile App that is designed to use beacons placedaround the office for productivity tracking, conference room scheduling,and other tasks. Instead of installing physical CompanyX beacons thatrequire maintenance and deployment, CompanyX enables its App to listenfor BecoIDs, upon hearing two or more BecoIDs, CompanyX's App makes aLocation Request, and in return is issued by the Location Engine aVirtual Beacon ID in their proprietary format. Their App, alreadyengineered to listen for their proprietary format, references theVirtual Beacon ID and performs as it would should it have heard anactual CompanyX beacon.

In one embodiment, Virtual Beacon IDs may be mapped to LocationIdentifiers by manually associating Location Identifiers with VirtualBeacon IDs using a check-in process (as earlier described). Forinstance, a CompanyX user would enter a conference room and check-inthat the room is a Conference Room along with any other importantlocational information. The user and/or App may also specify aproprietary CompanyX Identifier, this identifier becomes associated withthe CompanyX App and the one or more Location Identifiers present in theform of a Virtual Beacon ID. Using Virtual Beacon IDs, LocationIdentifiers may be virtualized for two or more Apps, for instance,CompanyX upon entering the conference room receiving from the LocationEngine a Virtual Beacon ID that is different than the Virtual Beacon IDreceived by a second company called CompanyY. This creates a sharedbeacon infrastructure that may be tailored by each App Developer or useras desired while eliminating the need for excess physical hardware.

In another embodiment, companies are able to assign Location Identifiersas Virtual Beacon IDs based on location and/or time slots. In thisexample, multiple Light Sources containing ACBs are installed into aStadium. CompanyZ is a major beverage retailer who desires to reach allStadium visitors using their App for a given event at the Stadium. Usinga web interface, API or physical survey of the Stadium, CompanyZ maysearch for Location Identifiers based on location, venue type, localevent, demographic, region, budget, and/or similar target informationand/or metadata. CompanyZ may request a time slot on the order of days,hours, weeks, months etc. CompanyZ may then request that one or moreLocation Identifiers, for instance all Location Identifiers associatedwith the Stadium location become Virtual Beacon IDs in their CompanyZproprietary format. This is done not by reprogramming the ACB hardware;rather the Location Engine does it by associating the LocationIdentifier with a Virtual Beacon ID. When CompanyZ's App makes aLocation Request, should the Location Engine establish that any of thespecified Location Identifiers associated with the Stadium are detected,the App receives back a Virtual Beacon ID in Company Z's format. The Appwould then recognize the Virtual Beacon ID and perform a function, forinstance issuing an event specific coupon.

In the case of both Company X and Company Z examples, the use of VirtualBeacon IDs enables the ACB Beacon to become an extension of anycompany's beacon strategy, providing the functionality of an iBeacon orother proprietary beacon at any location where the ACB is installed.This creates a shared infrastructure that may be used by many companieswithout requiring the companies to redefine their beacon strategy tofunction with a proprietary third-party beacon.

The Location Engine may rank location Identifiers and Virtual BeaconIDs. In one embodiment, Location Identifiers and Virtual Beacon IDs areranked in order of most valuable to least valuable. To do this, theLocation Engine uses a ranking algorithm that uses variables such asnumber of Location Requests per a given time period, number of uniqueLocation Requests per a given time period, physical location, proximityto known venues, location accuracy, and other available data. With suchranking data, the use of Location Identifiers and/or Virtual Beacon IDsmay be sold to third-party companies on an exclusive or non-exclusivebasis based on location and/or time-slots. The sale may be done using afixed price and/or auction where the open market sets the final saleprice, for instance using an English, Dutch, or proxy auction format.Location Identifiers may be made available on an exclusive ornon-exclusive basis, in some cases the Location Identifiers being issuedonly to for example the Company Z App with all other Location Requestsdenied.

As a means of controlling nearby Light Sources that are equipped with awireless radio, in some embodiments, the ACB broadcast may include itsUUID and an intensity level, the intensity level varying based on theACBs profile and real time observations. The intensity level may be partof the UUID, may be a major or minor, or may be the complete UUID orsome other variation of wireless payload, including a URL.

In one embodiment, the Light Source's wireless radio is set to listenfor any ACB wireless broadcast and therefore does not connect to the ACBand is capable of hearing more than one ACB broadcast. In the case ofmultiple nearby ACBs, to set a light intensity, the Light Sourcemeasures the RSSI of each ACB signal received and ranks the ACBs byRSSI, setting its intensity to the lighting level defined by the ACBwith an RSSI that is most consistently the highest level. In the casewhere the ACB UUID changes, for instance in the case of rotating UUIDs,the Light Source continues to follow the ACB with the strongest RSSI.The Light Source also may include a minimum RSSI threshold and thereforeignores RSSI signals that are specified as too low or with too muchvariation and/or inconsistency. Additionally the Light Source may rankACBs to follow, in which case should its priority ACB drop out, theLight Source may track a second ACB followed by a third and so on.Received ACB signals may also be averaged by the ACB. In the case forinstance where an ACB is directly installed into a light fixture housingto control one or more LED bulbs within the housing, the ACB's RSSI willbe very high, indicating with confidence that the ACB is nearby. WhileRSSI is not ideal for measuring exact distance, proximity within inchesis of a transmitting radio is easier to detect compared to distantsignals and in the case where a low RSSI is present, the Light Sourcecan assume they are not receiving a strong signal. In some embodiments,the Light Source may include a light or color sensor onboard and usingtechniques as previously described, further establish proximity ofadjacent ACBs. As a means of additional security and to eliminate thepossibility of dramatic intensity changes or flicker, the Light Sourcemay include hysteresis. Therefore, once the Light Source learns a signalto follow, even if for brief periods other UUIDs may have a strongerRSSI, the Light Source will continue to follow its learned signal. Asignal may be learned based on patterns of its measured RSSI over time.Should the learned signal disappear, the Light Source will remain at itsset intensity. Should the learned signal disappear for an extendedperiod, the Light Source will reset to its maximum intensity, forinstance at power cycle or may slowly ramp up to its maximum intensity.In the case where the Light Source receives a signal to reduceintensity, the Light Source uses dimming smoothing to adjust the LEDintensity. Using dimming smoothing, the Light Source has a firstintensity, which is its present intensity, and a second intensity, whichis the new target intensity. The Light Source calculates a dimming rampover a defined time period that gradually adjusts the LED intensity fromthe first intensity to the second intensity. This allows the ACB to seta new intensity level in its wireless broadcast without requiring thebroadcast to include incremental intensity changes or intensity ramps.Instead, the Light Source will recognize the new intensity value throughthe wireless broadcast, confirm it by listening to subsequentbroadcasts, and then begin ramping the intensity to the new set level.The ACB may also include in its wireless broadcast a time interval, forinstance stating an intensity and a ramp speed, requiring a fast rampfor instance as a user walks into a room and a slow ramp as light levelsare adjusted to regulate for ambient light. As an alternative to dimmingsmoothing, the Light Source may directly follow the ACB broadcast, theACB responsible for setting all dimming levels, including intensityramps and the appropriate ramp time. In either case, the Light Source isnot required to connect with or pair to the ACB. This eliminates theneed for unique address schemes and commissioning where specific LightSources are manually pointed to specific ACBs. Referring to theembodiment where the ACB snaps onto an Light Source, in the case forinstance of a T8 Fluorescent or LED Tube, the Light Sources may beinstalled first and the ACB second, even at a later date. Atinstallation, the ACB begins harvesting solar energy from the LightSource and broadcasting intensity levels. The Light Sources read the ACBbroadcast and adjust intensity automatically without pairing or setup.This same technique may be used and applied to light switches, dimmers,gateways, sensors or any other type of control or input device.

In the case where Light Sources do not include a wireless radio, awireless radio may be added to the light fixture through traditionaldimming means, such as connecting a wireless radio in the form of amodule to the light fixtures dimming input. The dimming input may be adriver, ballast, electronic circuit, or similar. In some embodiments,referring to the 0-10V harvesting techniques described herein, awireless receiver may be connected directly the light fixture or its LEDdriver or ballast's 0-10V input where it harvests energy to power thewireless radio and adjusts the light intensity of connected lightfixtures using the methods as previously discussed. The wirelessreceiver functions in a receive mode and listens for broadcasts from theACB as just described. The wireless receiver then sets the intensity ofthe connected Light Sources. This solution would be a two-wire solutionthat both dims and powers the wireless module and offers the opportunityfor the ACB to control any third-party lighting device. In anotherembodiment, a wireless radio may be added to an external relay, switch,TRIAC, SCR, or switch pack, where the switch pack powers the wirelessradio. The wireless radio thereafter controls the switch pack byactivating and deactivating its output using a switch input. In anotherembodiment, the wireless radio may be part of a larger lighting controlsystem, where the ACB provides feedback to the lighting control systemthrough a wireless connection that then may be used to trigger real-timeor future events.

In addition to transmitting a wireless broadcast, the ACB is able toswitch into a listen mode where the ACB is able to listen for similarbroadcasts from other devices. The advantage to this embodiment is tosimplify setup by reducing the complexities or security concerns ofestablishing bidirectional communication; rather the ACB is programmedto occasionally listen for broadcasts when it is not broadcasting. Inthis case, the ACB is able to hear a wireless payload from for instanceanother ACB, a mobile device, a wireless light switch or similar device,the payload including operational information, such as user preferredlight levels. Upon receiving the wireless payload, the ACB is able toadjust light levels in accordance to the user's preferences withoutdirectly connecting to the user. In the case of multiple users the ACBis able to average the received data and record the unique identifier ofthe broadcasting device. For instance if one user requests the lightingto be dimmer and one brighter, the ACB maintains the current brightness(in this case the average). Under these conditions, users within a spaceusing a mobile device application are able to vote for theirenvironmental preferences, including their preferred lighting intensitylevel and/or lighting color. Preferences may be as simple as specifyinga location should be brighter or dimmer, warmer or cooler rather thanspecifying an exact value. In some embodiments, the same technique maybe applied to HVAC systems where users are able to vote for temperaturein the form of warmer or cooler. In all cases, user feedback and similardata may be used as an input into Location Analytics as a measure ofbuilding health and operation.

In some embodiments, the user's mobile device may periodically orcontinuously broadcast a customized UUID with or without a major orminor that may contain personal information about the user and theirpreferences. The UUID is then read by the ACB and similar deviceswithout requiring pairing or a connection to the mobile device and theACB is able to adjust the environment within a space accordingly. TheACB is capable of placing greater weight on previously recognized UUIDscompared to new UUIDs. In some embodiments, the ACB is able to measurethe RSSI and compare it to the transmission power of broadcastedsignals. This allows the ACB to place priority to signals thatconsistently include a higher RSSI indicating a user may be closer tothe ACB than another. In another embodiment, the mobile device may beused to broadcast a signal that is heard by the ACB, in which case theACB performs a light effect. This is useful for instance when an App onthe mobile device attempts to gain the user's attention. In one example,a vending machine is outfitted with an ACB and a Light Source. Uponapproaching the vending machine, the mobile device broadcasts a signalthat is received by the ACB and a lighting effect such as color changingor intensity ramps occur. In some embodiments, the mobile devicerecognizes the ACB broadcast and triggers a coupon based on userpreferences, for instance a coupon for their favorite flavor. In a moreadvanced system, the mobile device may broadcast specific color orlighting function commands to the ACB. In this case, the ACB wouldcreate a lighting effect specific to the nearby user, for instancechanging the cooler to cherry light color to correspond with a coupondelivered for cherry soda. Lighting effects may also be created forspecial events, for instance a red, white, and blue color scheme for the4th of July. They also may be created based on user demographic, funcolor changing schemes and intensity ramps for children and moresophisticated brightening and dimming for adults. Furthermore, the useof the ACB occupancy sensor is able to confirm the delivery of thelighting effect. For instance, the ACB hears the mobile devicebroadcasts, however does not react until both the RSSI crosses athreshold and the ACB occupancy sensor detects user presence. In anotherexample, an App of a user walking down an aisle of a department storemay broadcast a signal that indicates their shopping preference,changing light effect nearby specific products, for instance brighteninglighting around products that correspond to a shopping list or changinglighting color. This is also done by the mobile device broadcasting userpreferences that are then understood by the ACB resulting in a lightingeffect, where the ACB makes the decision on how to display nearbyproducts.

In another embodiment, the mobile device may be used to broadcastconfiguration and operational information to the ACB. In one example,the wireless broadcast may include a first intensity level and a secondintensity level, the first target intensity level specifying a targetintensity level for the ACB light sensor to regulate and the secondintensity level is the minimum allowed intensity level. This informationmay be set using an App installed to a mobile device, such as theexample shown in FIG. 54. Wireless broadcasts may also be used to setconfiguration information such as the aggressiveness of dimming rampsfor transitions, rules, profile codes, and/or wireless transmit power.Profile codes may be defined by a description, such as Retail profile,where profiles may consist of one or more rules. In a more advancedconfiguration, rules may also be created. In some embodiments, themobile device transmits to the ACB at initial setup a first intensitylevel, a second intensity level, and a transmit power level. In anotherembodiment, the mobile device transits to the ACB a first intensitylevel and a transmit power level. In another, the mobile devicetransmits an activation code to the ACB. The information may be encodedin a special UUID and/or use of major/minor codes or by connecting tothe ACB with bi-directional communication or some other wireless method.In some embodiments, the information may be communicated to the ACBphoto sensor using light from the mobile device's screen or flash LED.

Referring now to FIG. 1, a block diagram depicting components of theAdvanced Control Beacon, in accordance with an embodiment. FIG. 1illustrates an operational view of the ACB internal functionality. TheEnergy Source provides energy to the Power Converter at step 10. TheEnergy Source may be one or more solar cells or may be any power sourceas described herein. At step 20, the Power Converter converts the EnergySource voltage from a first voltage to a second voltage and stores theConverted Energy in the Energy Storage Device. The Power Converter maybe as simple as a switch and an inductor that is controlled by theProcessor using a PWM signal. At step 30, additionally, the PowerConverter may include two stages, a first stage that boosts the voltagefrom the Energy Source and a second stage that reduces (or bucks) thenow boosted voltage. The Energy Storage Device may be a battery,capacitor, inductor, super capacitor or similar as describe in thisdocument. There may be more than one Energy Storage device. The EnergyStorage Device provides power (V+) to electronic components internal tothe ACB. At step 40, the Processor monitors the Power Converter/EnergySource in order to manage the ACB energy budget and/or charging of theEnergy Storage Device. This may be done by taking measurements oralgorithmically. The Processor is also able to modify the operation ofother devices within the ACB, such as the Radio, Sensors, DimmingControl etc. in order to regulate the power consumption of each deviceand to enter the ACB into a low power mode of operation. At step 50,with power available, in the embodiment shown, the processor adjusts theduty cycle (aka chirp rate) of the Radio's wireless beacon broadcast andoptionally the Radio's sniffing for nearby wireless devices, such as MACaddresses of nearby mobile devices. The same Radio may be used for bothsniffing and broadcasting and the Processor adjusts the duty cycle ofboth functions to maintain a power budget while maximizingperformance/functionality. At step 60, as the radio detects nearbymobile devices through sniffing, the processor stores the MAC address,RSSI of the detected signal, and a time stamp into the Database that isstored in Memory, this data referred to as Ambient Data, the time stampestablished by the Clock. Typically Memory is onboard the same siliconehardware as the Processor, but it can be a separate component. Thestored data may be compressed, for instance the MAC being hashed ortruncated to save memory space and energy. One function of Ambient Datais to collect data on mobile device traffic that may then be analyzed bya remote server for tasks such as analytics. Another function of AmbientData may be to directly influence the operation of nearby Light Sources,the processor having a Dimming Output that may connect to one or moreLight Sources to adjust their intensity level based on Ambient Data orthe ACB's available sensors. A dimming input may also be available asshown. The processor may also use available sensors, including using theEnergy Source (such as a solar panel) to detect its environment, forinstance determining when the ambient lighting is on or off (forinstance by measuring the voltage on the solar cell). Other such datamay include a histogram of lighting intensity levels, occupancy data,temperature, and measurable local data. This data is also stored toMemory, referred to as Light Data. To effectively provide locationservices to nearby mobile devices and to make available the Ambient Dataand Light Data recorded, the Processor generates a UUID, Major/Minoand/or URL string that is broadcast by the Radio in the form of awireless beacon at step 70. The wireless broadcast may include a UniqueIdentifier, some or part of this number rotating with time andcalculated by the Processor, along with the Ambient Data and/or LightData as described. In some cases, the Ambient Data and Light Data mayrotate, some or all of the Ambient Data first broadcast with the UniqueIdentifier, followed by the Light Data broadcast with the UniqueIdentifier. The Processor may also vary the power level of the Radiofrom a first state as a high power broadcast to a second state to a lowpower broadcast, the technique as earlier described improving locationaccuracy for mobile devices and the Location Engine management oflocations. Upon detecting the Wireless Beacon, nearby devices, likemobile devices may hit the presented URL (or API should a conventionalbeacon such as an iBeacon be detected), providing back to the LocationEngine server(s) the unique identifier and in some cases the Light Dataand some or all of the Ambient Data. It also enables the Location Engineto respond back to the mobile device with information, such as decodedMajor/Minor values, a decoded UUID, a Virtual Beacon, LocationIdentifier, metadata etc. Many embodiments are possible, including theuse of iBeacon and other beacon formats in addition or in lieu of theURL technique as described.

FIGS. 2A-2B are block diagrams depicting a system for the AdvancedControl Beacon, in accordance with some embodiments. FIGS. 2A and 2Bshow a variation of a complete system diagram, noting that components asdescribed may be optional and that the intent is to illustrate afull-featured solution (keeping in mind that it is possible to add othercomponents to the system as shown and that the system as displayed is byway of example). As discussed in FIG. 1, the ACB may detect AmbientData, such as nearby mobile devices over time using their wirelessradios, such as wireless MAC sniffing at step 21, these detected devicesdefined as Mobile Devices B through ‘n’ as shown. The ACB may alsodetect environmental data such as light intensity, light color, lightingenergy consumed, motion detected, temperature, carbon dioxide levels andother measurable data points referred to as Light Data. One way the ACBcommunicates this data is through its beacon broadcast (step 22), fromwhich nearby Mobile Device A is able to communicate Ambient and/or LightData directly to the Location Engine through a Location Request (step23). Another way the ACB communicates this data is through a localGateway Device (step 23 a), where the Gateway Device may listen for ACBBeacon Broadcasts or may directly connect to the ACB or a network ofACBs in order to get the data. The Gateway Device may be connected tothe Internet and in communication with the Location Engine (23 b). Inthe case of Mobile Device A, upon issuing the Location Request to theLocation Engine, the Location Engine may return back (step 24) aLocation Identifier, Virtual Beacon, or in some cases a Web Page,providing Mobile Device A with its location and/or other information.Mobile Device A initiates the Location Request (23) one of several waysdiscussed herein, the simplest method by decoding and then hitting a URLbroadcast by the ACB, the URL including a Unique Identifier along withAmbient Data and/or Light Data. Upon receiving the Location Request, theLocation Engine establishes Mobile Device A's location and at the sametime extracts the Light Data and/or Ambient Data out of the MobileDevice Location Request (25). The Location Request may includeadditional information, such as the RSSI of the ACB Broadcast asmeasured by the mobile device and information specific to the mobiledevice, like a unique identifier, its IP address, Apps installed andother information. All of this data, including the Location Request,Light Data, and Ambient Data may be stored and analyzed through theLocation Engine's Analytics platform. Analytics include Real-Time userlocation data and building data, user location data and building overtime, as well as predictive analytics that may be derived from theiranalysis. Additionally, other third-party data may be introduced toimprove the data accuracy and resolution. Through a User Interface (27),users can log into Analytics (26) using for instance a web browser toview the operational history of a building or space outfitted with ACBs,including how users us a space, how energy is consumed, and lightinghealth as shown by way of example in FIGS. 3 and 4 (26). The type ofdata analyzed and displayed is virtually unlimited as is itspresentation. In addition to displaying information, the Analyticsplatform is capable of providing a raw data feed as well as interfacingwith Building Management Systems (BMS) (28), for instance providingreal-time or predicted data through an API to a BMS that may then alterthe operation of one of its many connected systems as shown, resultingin improved building operation, user comfort, and/or energy savings(29). These examples are non-limiting.

FIGS. 3 and 4 depict example user interfaces for analytics provided viathe Advanced Control Beacon, in accordance with some embodiments. FIGS.3 and 4 shows a baseline example of Analytics. In this example alocation is defined, followed by a number of Places within the location.Users are able to define a timeframe to view data, the data availablefrom one or more ACBs that are installed in these locations. In oneembodiment, one ACB may be used for a single Place. In another eachPlace may have many ACBs. Accurate user positioning and user traffic maybe refined by the Location Engine monitoring the transition of a userfrom one Place to another. To explore the other fields shown, LightingUse is defined by measuring the operational on time of the light fixturethat for instance a solar powered ACB may be attached to. This may alsobe simply converted to Energy use. Total Visits show the number ofusers, which may include both users issuing Location Requests as well asusers detected by wireless sniffing and communicated by the ACB throughAmbient Data attached to for instance URLs that are hit to generate theLocation Request. Average Visit Duration is calculated as Visits vs.time at a specific Place. Space Utilization at its most basic level iscalculated as the average number of visitors in a Place divided by themaximum users ever recorded within the same Place. This metric helpsfacility managers understand how well space is being utilized relativeto its maximum potential. Lighting Health offers visibility into thetotal run time of the local light sources, giving insight as to whenlighting may be expected to be changed or how the operation of the lightsource compares to its warranty period. This is particularly useful wheninstalling the ACB into a long-life light source, such as LED lighting.Other ways to visualize the data includes displaying location floorplans and graphically visualizing one or more metrics on the floor plan,for instance using color gradients. The type of data to be displayed andits visualization is unlimited, the dashboard shown being an incrediblysimple example.

FIG. 5 is a flow diagram depicting a process of analyzing a locationrequest, in accordance with an embodiment. FIG. 5 shows a locationrequest consisting of 5 BecoIDs. These BecoIDs are converted to SerialNumbers that are then matched with their appropriate LocationIdentifier. In this example, two Location Identifiers are establishedbased on the BecoIDs submitted. The Location Identifier and a VirtualBeacon ID are issued. In some cases as shown a single Serial Number maybe associated with a single Location Identifier, in other cases, as alsoshown, many Beco IDs may be associated with a Location Identifier.Serial Numbers are simple a fixed ID that represents each ACB in thefield, the BecoIDs changing over time. In one embodiment, the order ofwhich the BecoIDs are received over time and their resulting LocationIdentifiers may be used to help validate accuracy and positioning, forinstance, a mobile device moving through a room may be expected todetect all 5 BecoIDs as shown or all 5 Beco IDs as shown in a particularorder, indicating movement of the device and adding certainty to theissuance of the Location Identifier.

FIG. 6 is a block diagram depicting a process of generating a virtualbeacon ID, in accordance with an embodiment. FIG. 6 shows 2 differentmobile devices, each operating a different App that subscribes to ourVirtual Beacon ID program. Each mobile device detects one or moreBecoIDs broadcast from one or more ACBs, the mobile devices being in thesame physical location and therefore the BecoIDs being the same (61).Upon detection, each App issues a Location Request to the LocationEngine and receives back a Virtual Beacon ID (62). As shown in thediagram, each Virtual Beacon ID received back is different, showing howa single collection of BecoIDs can be configured to return back any typeof identifier depending on the App and the format the App uses,processes or requires (63). In some implementations, Lighting Data andAmbient Data is extracted from the BecoIDs (64), this data combined witha record of Location Requests being useful for Analytics as alreadydescribed (65).

FIG. 7 is a block diagram depicting an interaction between a locationengine, a mobile device and a third party system, in accordance with anembodiment. FIG. 7 shows a first example of how the Location Engineinteracts with a Mobile Device and a third party system, in some casesbeing an Ad-Exchange. As shown, a mobile device detects one or more ACBBecoID broadcasts (71). Upon doing so, the mobile device issues aLocation Request to the Location Engine (72). The Location Engineresponds with a Location Identifier and/or a Virtual Beacon ID (73).With the location data, the Mobile Device requests an advertisement fromthe third-party server, including in its request the location data,which may be in the form of the Location Identifier, Virtual Beacon ID,or other descriptive data like locational coordinates or metadata aboutthe location (74). The Third-Party server uses the location data (alongwith other available data) to display an advertisement tailored to thespecific mobile user, the Mobile Device displaying the advertisement(75). In the case of an Ad-Exchange, it may auction the advertisementslot to advertisers and other third parties using real-time bidding andother similar techniques, presenting the advertisement slot with thelocation data or information about the location. In someimplementations, Lighting Data and Ambient Data is extracted from theBecoIDs for Analytics (76, 77).

FIG. 8 is a block diagram depicting an interaction between a locationengine, a mobile device and a third party system, in accordance with anembodiment. FIG. 8 shows an embodiment of how the Location Engineinteracts with a Mobile Device and a Third-Party System that may be anAd-Exchange. As shown, a Mobile Device detects one or more ACB BecoIDbroadcasts (81). Upon doing so, it requests an advertisement from theThird-Party server, including in its request BecoIDs (82). TheThird-Party Server issues a Location Request to the Location Engine withthe BecoIDs in which case the Location Engine returns a LocationIdentifier, Virtual Beacon ID, or other descriptive data like locationalcoordinates or metadata about the location (83). The Third-Party Serveruses the location data (along with other available data) to display anadvertisement tailored to the specific mobile user, the mobile devicedisplaying the advertisement (84). In the case of an Ad-Exchange, it mayauction the advertisement slot to advertisers and other third parties,presenting the advertisement slot with the location data or informationabout the location (85). In some implementations, Lighting Data andAmbient Data is extracted from the BecoIDs for Analytics (86, 87).

FIG. 9 is a block diagram depicting an interaction between an ACB and alocation engine, in accordance with an embodiment. FIG. 9 shows anembodiment of how an ACB broadcasting a URL may use the Location Engineto return a web page. In this example, the Mobile Device detects one ormore BecoIDs from the ACB, the BecoID formatted as a URL (91, 92). TheMobile Device decodes and hits the provided URL, the URL directed to theLocation Engine (92, 93). The Location Engine in one embodiment mayreturn a web page and/or Location Identifier and/or Virtual Beacondirectly (94, 95). In the embodiment shown, the Location Engine receivesthe URL hit and responds by requesting content from a Third Party Server(94, 95). This request could be for an advertisement, location relevantdata, such as a train schedule, or any other information that is usefulrelative to the Mobile Device. The Location Engine may also functionsimply as a cache server by decoding the URL and forwarding the requestto the 3^(rd) Party Server to interface directly with the Mobile Deviceand therefore directing traffic away from the Location Engine (95). Asdescribed herein, the Location Engine upon receiving the URL hit is alsoable to extract Light Data and Ambient Data from the URL hit, this databeing useful for Analytics as already described (96, 97).

FIG. 10 is a block diagram depicting an interaction between an ACB, 3rdParty system, and location engine, in accordance with an embodiment.FIG. 10 displays an example of how the ACB Beacon, 3rd Party Systems,and the Location Engine interact. There are many possible variations, inwhich case this diagram should be considered as one of many variations.

In this example, the ACB includes the wireless radio and ACB system thatgenerate and transmit beacons. The 3^(rd) party system includes mobiledevices that receive or detect the beacons (e.g., BecoIDs). The mobiledevice can generate a location request to the location engine 1105 vianetwork 104.

Referring now to FIG. 11, a block diagram depicting a system forlight-enabled indoor tracking, positioning, or reporting in accordancewith an embodiment is shown. In brief overview, the system 1100 includesone or more advanced control beacons or ACBs 1135 a-n (or referred to asACB 1135). The ACB 1135 may be referred to as a light-enabledpositioning device or light-enabled tracking device. The ACB 1135 iscoupled, fastened, attached, or other held adjacent to the light source1120 via a fastener 1125. The distance between a portion of the ACB 1125and a portion of the light source 1120 may be D 1130. The ACB 1235 caninclude a beacon ID generator 1140, solar power module 1145, and awireless radio 1150. A client device 102 can receive a wirelesstransmission from the ACB 1150. The client 102 can include an antenna1155 and an agent 1160 executing on the client 102 to process thereceived wireless transmission and take further actions. The system 1100can include an indoor positioning tool 1105. The tool 1105 can include alocation engine 1105 that receives a beacon identifier or otherinformation from the client 102. The tool 1105 can include a database1115 with a mapping of beacon identifier to locations. The tool 1105 caninclude a report generator 1110 that can perform various analysis orprocessing of information received via client 102 or otherwise obtainedto generate report, analytics, or take further actions. The system 1100,ACB 1135, client 102, and tool 1105 can be configured with or includeone or more component or functionality illustrated in FIGS. 1, 2A, 2B,5, 6-10, and 12-17D.

Still referring to FIG. 11, and in further detail, the system 1100includes an ACB 1135 that is adjacent to a light source 1120. The lightsource 1120 can include any type of light source, including, e.g., solidstate, organic, or filament (with or without a gas) type sources, aLight Emitting Diode (LED), organic LED (OLED), fluorescent, neon,plasma, HID, inductive, incandescent, halogen, or any other source oflumen generation.

The ACB 1135 may be positioned, placed, fixed, or removably fixedadjacent to the light source 1120 via a fastener 1125. The ACB 1135 canbe positioned, placed, fixed, or removably fixed adjacent to the lightsource using the fastener 1125. The fastener 1125 can be mechanicallycoupled to a housing of the ACB 1135. In some embodiments, the fastenermay mechanically couple or attach a portion of the ACB 1135 to a portionof the light source 1120. The fastener 1125 can be configured to bepermanently connected to at least one of the housing of the ACB 1135 orthe light source 1120.

In some embodiments, the fastener 1125 may position the ACB 1135adjacent to the light source 1120 without coupling the ACB 1135 to aportion of the light source 1120. For example, the light source 1120 mayinclude a ceiling fixture or wall fixture. The fastener 1120 may attachthe ACB 1135 to the ceiling or the wall, rather than the light source1120. However, the fastener 1120 may attach or position the ACB 1135 adistance D 1130 from the light source 1120 such that the solar powermodule 1145 of the ACB 1135 can generate sufficient power from the lightsource 1120 to power the beacon ID generator 1140 and wireless radio1150.

In some embodiments, the fastener 1125 can include clips. For example,the fastener 1125 can include one or more clips 1305 as illustrated inFIG. 13. The clips can have various dimensions and configurations basedon the application. The diameter, shape, or material of the clips mayvary based on a dimension of the light source 1120 (e.g., diameter ofthe tube light), indoor/outdoor setting (e.g., using a weatherproofmaterial such as plastic for outdoor applications). In some embodiments,the fastener 1125 may include a wire, string, hook, sleeve,hook-and-loop fasteners, hook-and-pile fasteners, touch fasteners, etc.In some embodiments, the fastener 1125 can include an adhesive, suctioncup, magnet, latch, groove, screws, nut and bolt, or pins.

In some embodiments, a dimension of the fastener 1125 may be adjustable.For example, the fastener 1125 can be extended or contracted in order tovary distance D 1130, or a diameter of the clips. In some embodiments,the fastener 1125 may be malleable, moldable, ductile, or pliable suchthat it can be re-configured or adjusted to attach to light source 1120or other fixture without being pre-configured or manufactured.

In some embodiments, the fastener 1125 can be removable. The fastener1125 can be removable from the housing of the ACB 1135, or from thelight source 1120 or other fixture with which the fasten 1125 attachesthe ACB 1135. For example, the fastener 1125 may include an attachmentmechanism that attaches the fastener to the housing of the ACB 1135. Theattachment mechanism may include an adhesive, suction cup, magnet,latch, groove, screws, nut and bolt, pins, etc.

The fastener 1125 positions the ACB 1135 a distance D 1130 from thelight source. The distance D 1130 can be a predetermined distance thatallows the solar power module 1145 to convert sufficient light outputfrom light source 1120 to electricity in order to power the electroniccircuitry of the ACB 1135. In some embodiments, the distance D 1130 canvary based on the light intensity or lumen output of the light source1120. For example, the distance D 1130 may be greater for a light sourcethat outputs a high lumen amount as compared to a light source thatoutputs a low lumen amount. The distance D 1130 may further vary basedon a heat output of the light source 1120. For example, a halogen lampwith a high lumen output may generate a large amount of heat; thus,distance D 1130 may be determined such that the heat output of the lightsource 1120 does not adversely impact the ACB 1135 or componentsthereof. In some examples, the distance D 1130 may be a value in therange of 0.25 inches to 5 inches, or plus or minus 10% thereof.

In some embodiments, the fastener 1125 may be built-in with the lightsource 1120. For example, the fastener 1125 may be included as part ofthe light source during manufacturing or assembly of the light source1120. Thus, the light source 1120 can include a fastener 1125 that isconfigured to attach the ACB 1135 a distance D 1130 from the lightsource.

In some embodiments, the system 1100 includes an ACB 1135. The ACB 1135can include one or more component or functionality illustrated in FIG.1, 2A, or 10. The ACB 1135 can include a solar power module 1145. Thesolar power module 1145 can include one or more solar cells. Solarcells, or photovoltaic cells, can include an electrical device thatconverts the energy of light into electricity via the photovoltaiceffect. The solar cells may be photovoltaic irrespective of whether thesource is sunlight or an artificial light from the light source.

The solar power module 1145 can further include a circuit configured toconvert power from the solar cells and supply the power in anappropriate form for consumption by one or more electronic components ofthe ACB 1135. The solar power module 1145 can include a power converterthat converts a characteristic of power obtained from the solar cells toa second characteristic for use by an electronic component of the ACB1135. For example, the power convertor can include a voltage transformerthat converts a first voltage from the solar cell to a second voltagethat operators the beacon ID generator 1140, wireless radio 1150,processor, transmitter, etc.

In some embodiments, the solar power module 1145 can include a powerstorage component. The power storage component can include a battery, orelectrochemical cells that convert stored chemical energy intoelectrical energy, and vice versa. The battery may be rechargeable viathe solar cells. The power store component can include a rechargeablebattery, storage battery, secondary cell, or accumulator. The powerstorage component can include, e.g., lead-acid batteries, nickel-cadmiumbatteries, lithium-ion batteries, lithium-ion polymer batteries, lithiumsulfur batteries, thin film batteries, smart batteries, ultrabattery,potassium-ion battery, sodium-ion battery, quantum battery, etc.

The ACB 1135 can include a beacon generator 1140. The beacon generator1140 can be configured on one or more processors. In some embodiments,the beacon generator 1140 can include the wireless radio or beconfigured on the same processor as the wireless radio. The beacon IDgenerator 1140 can generate a beacon that includes information, such asa numeric identifier, alpha numeric identifier, an identifier comprisingbinary values, a string, text, phrase, symbols, or other information.The beacon ID generator 1140 can be configured to generate a beacon witha fixed identifier, or an identifier that varies. The beacon IDgenerator 1140 can be configured to vary the beacon identifier based ona function, using a random generator, based on time, based on acondition or an event. The beacon generator 1145 can generate theBecoID. The beacon generator 1145 can periodically generate beacons,continuously generate beacons, or generate beacons responsive to acondition or event.

In some embodiments, the beacon generator 1140 can generate an encodedbeacon. For example, the beacon generator 1145 can generate a beaconthat includes a string that is encoded with a key. The string caninclude any information that can facilitate positioning, reporting, ortracking or providing other functionality. For example, the informationcan include metadata, measured data, sensed data, detected data,temperature information, humidity information, proximity information,motion sensor information, audio information, video information,pictures, timestamps, status information, operational statusinformation, alerts, location information, etc.

For example, the ACB 1135 can interface with one or more sensors, suchas temperature sensors, ambient temperature sensors, proximity sensors,motion sensors, light sensors, microphone, camera, vibration sensor,seismic sensor, etc. The ACB 1135 may receive sensor information andgenerate a beacon with a string that includes the sensor information.

In some embodiments, the beacon generator 1140 can generate a beacon toinclude an identifier such as a uniform resource identifier, uniformresource locator, web address, IP address, location information,latitude and longitude coordinates, etc. In some cases, the informationcan include a universally unique identifier (e.g., beacon UUID) followedby a major and minor value. The Beacon UUID may be a fixed identifier ormay change over time, the character length of the UUID beingunrestricted. In one embodiment, the UUID is comprised of 16-bytes,optionally followed by a 2-byte major value and a 2-byte minor value,collectively referred to as an iBeacon. In another embodiment, the UUIDcomprises a 16-byte unique identifier followed by 4-bytes of LightingData and in some cases an optional 1-byte broadcast power level. Inanother embodiment, the UUID comprises a URL that includes a webaddress, such as https://www.beco.com, followed by data that may includea unique ID and other data, where the data may include Lighting Data,Ambient Data, an error code, profile code, and/or similar. The webaddress may be compressed using an encoding scheme in order to maximizethe amount of data included in a single wireless payload. In oneembodiment, to communicate larger amounts of data than permitted in asingle broadcast, data included in the broadcast may change over thecourse of multiple broadcasts, for instance a first broadcast thatincludes a Unique ID and Lighting Data, followed by a second broadcastthat includes a Unique ID and Ambient Data. In a similar embodiment,data of a similar type too long to fit into a single broadcast may besplit into multiple broadcasts, such that a first broadcast includes aUnique ID and Ambient Data followed by a second broadcast that includesa Unique ID and additional Ambient Data. The rotation and frequency ofthe data type that follows the Unique ID may vary, as may the Unique ID.Many variations in message length and format are possible, thevariations being unlimited.

The beacon generator 1140 beacon or string can be encrypted. The beacongenerator 1140 can use one or more encryption techniques. The encryptiontechnique can include encoding the message or information such that onlyauthorized entities can read the information. The beacon generator 1140can use a key to encode the information or string in the beacon. Thekey, or encryption key, can be stored in the ACB 1135 or preconfiguredin the ACB. The tool 1105 may include a decryption key that can decryptthe encoded string.

In some cases, the encryption technique can change over time using acrypto engine. Thus, it may be possible to convey the same informationusing different encryption. For example, a first string can be encodedwith a first encryption and broadcast. The first string can later beencoded using a second encryption and re-broadcasted. In anotherexample, the first string can map to a first location. A second stringdifferent from the first string may also map to the first location. Inthis example, the first string and the second string can be broadcastusing the same encryption, and the tool 1105 can map both the first andsecond strings to a same location. Thus, the ACB 1135 can use variousencryption or mapping techniques to convey information in a securemanner.

Upon generating the beacon with the information, and/or encrypting theinformation, the ACB 1135 can broadcast, transmit, or otherwisecommunicate the beacon. The ACB 1135 can include a wireless radio 1150to broadcast, transmit, or otherwise communicate or convey the beacon.The wireless radio 1150 can broadcast the generated beacon periodically,continuously or responsive to an event or condition. In someembodiments, the broadcast or transmission can be a wireless transfer ofinformation between two or more points that are not connected by anelectrical conductor. The wireless transmission can include radio waves.The wireless radio 1150 may include, e.g., Bluetooth, wifi, infrared,ultrasonic, land mobile radio, wireless USB, etc.

In some embodiments, the wireless radio 1150 can transmit the beaconusing Bluetooth technology. Bluetooth may refer to a wireless technologystandard for exchanging data over relatively short distances. Forexample, Bluetooth wireless technology may include short-wavelength UHFradio waves having a frequency between 2.4 to 2.485 GHz. The wirelessradio can be configured to use one or more Bluetooth standards,including, e.g., Bluetooth v1.0, v1.1, v1.2, v2.0+EDR, v. 2.1+EDR,v3.0+HS, Bluetooth v4.0, Bluetooth v4.1, Bluetooth v4.2, etc. Thewireless radio can be configured with low energy wireless technologies,such as Bluetooth low energy (Bluetooth LE, BLE or Bluetooth smart).

In some embodiments, the wireless radio 1150 can broadcast the beaconusing multiple wireless communication technologies and or multipleencryption techniques. In some embodiments, the ACB 1135 can adjust orselect a wireless communication technology or encryption technique basedon a type of information to be transmitted. For example, if the size ofthe data is greater, then the ACB 1135 may employ a compressiontechnique or select an encryption that is more efficient to communicatethe information. Further, if the data size is large, the wireless radio1150 may use a wireless protocol that can transfer data faster, such asWiFi. In another example, if the type of information is sensitive, suchas location information, operational status information, or personallyidentifying information, the ACB 1135 can select a more secureencryption technique, such as 256-bit encryption. Thus, in someembodiments, the ACB 1135 can select a wireless communication protocolor encryption technique based on the amount of data or the type of datato be transmitted.

The system 1100 can include a client device 102. The client device 102can include, e.g., a mobile telecommunications device, wearable device,smartphone, smartwatch, tablet, etc. The client device 102 can includean antenna 1155 that wireless receives or identifies the beaconbroadcast via wireless radio 1150. The antenna 1155 can be configured toidentify the wireless broadcast.

The client 102 can include an agent 1160 that receives the broadcastedbeacon. The agent 1160 can include an application or resource executingon one or more processor of the client 102. The agent 1160 can monitorfor the broadcasted beacon. Responsive to receiving, detecting orotherwise identifying the beacon, the agent 1160 can be configured toperform one or more action. For example, the agent 1160 can process orparse the beacon, re-transmit the beacon, provide a notification orindication to a user of the client device 102, store the beacon,generate a location request, query a server, etc.

In some embodiments, the agent 1160 can be configured to re-transmit thereceived beacon to a server, such as the indoor positioning tool 1105.The agent 1160 may transmit the beacon (or portion thereof, orinformation thereof) to the tool 1105 via network 104. The agent 1160can transmit the beacon information in real-time (e.g., responsive toreceiving or identifying the beacon), based on a time interval, period,or based on location cell for a certain amount of time or indefinitely.For example, the agent 1160 may periodically transmit beacon informationto tool 1105 based on a time interval, such as 60 seconds, 90 seconds, 5minutes, 10 minutes, 30 minutes, 1 hour or some other time interval thatfacilitates indoor positioning or tracking. In some embodiments, thetime interval, period and duration may be adjusted based on the amountof available energy. The amount of energy may be from the solar cell ora storage device. For example, if the amount of solar energy is low,then the ACB can lower the broadcast frequency so as to conserve energy.The amount of solar energy may be low if the light output of the lightsource is low. In some cases, if the light source produces a greaterlight output, then the solar cells can produce more electricity, and theACB may increase the frequency of the broadcast. In some embodiments,the time interval may be adjusted based on a type of information orindicator associated with the beacon. For example, if the beaconinformation includes operational status information, then the agent 1160can be configured to transmit the beacon in real-time (e.g., responsiveto receiving the beacon). Operation status information may refer tostatus information of the ACB 1135, and may indicate that a component ofthe ACB 1135 is functioning properly, malfunctioning, an error code,alert, etc. In some embodiments, the beacon information may be less timecritical, such as historical temperature measurements, in which case theagent 1160 may determine to transmit the beacon information to tool 1105at a later time as opposed to in real-time. For example, the agent 1160may transmit the non-time critical information the next time the agent1160 establishes a communication channel with tool 1105, or in a batchprocess, or when the client device 102 is connected to a power source,thereby conserving battery usage of the client device 102.

To transmit the beacon information to tool 1105, the agent 1160 can beconfigured with an IP address or other identifying information of thetool 1105. The agent 1160 may further be configured with authenticationinformation or credentials to establish a communication channel withtool 1105. In some cases, the agent 1160 may modify the beaconinformation or append data to the beacon information. For example, theagent 1160 can include information that identifies the client 102 oruser thereof along with the beacon information, and transmit the beaconinformation with the additional information to the tool 1105 for furtherprocessing.

In some embodiments, the agent 1160 may not be able to decrypt theencrypted string in the beacon. In these embodiments, the agent 1160,rather than modifying the beacon information, can include an additionaltransmission to the tool 1105 that includes the additional information.The tool 1105 can be configured to associate the additional transmissionwith the additional information with the transmission of the beaconinformation based on the temporal proximity of the two transmission or asource of the two transmissions (e.g., source port identified in headerinformation of the packet).

The system 1100 can include an indoor positioning tool 1105. The tool1105 can include one or more processors or servers. The tool 1105 caninclude a location engine 1105, report generator 1110 and database 1115.The location engine 1105, report generator 1110, and database 1115 canbe configured with one or more component or functionality illustrated inFIGS. 2A, 2B, 3-10, and 17A-17D. For example, the tool 1105 can includebackend apps 120. The tool 1105 may operate in cloud 108 as a service.

The location engine 1105 can receive the beacon information. Thelocation engine 1105 can receive one or more data packets that includeheader and payload data. The location engine 1105 can parse the datapackets to identify the payload data and identify the beaconinformation, including, e.g., a beacon identifier, string or otherbeacon information. In some embodiments, the location engine 1105 candetermine that the beacon information is encrypted. The location engine1105 can access a database 1115 storing a decryption key to decrypt theencrypted information.

The location engine 1105 may perform a lookup in database 1115 using avalue or identifier provided with the beacon information to identify alocation. The location may refer to a geographic location, state, city,town, address, latitude longitude, map cell, entity name, locationwithin a store, customized location, electronic location, IP address,URI, web address, data file, application, resource, etc. The database1115 can include a mapping of BecoIDs to one or more locations. In somecases, multiple identifiers may map to a same location.

In some embodiments, the tool 1105 can receive multiple beaconidentifiers from the same client 102. The tool 1105 can receive themultiple beacon identifiers from the same client 102 within a timeinterval, such as 1 minute, 5 minutes, 10 minutes, 30 minutes, 1 hour,etc. The location engine 1105 may perform a clustering technique togroup the multiple beacon identifiers together. In some cases, themultiple beacon identifiers may be from multiple ACBs, such as ACB 1135a-n. In some cases, the tool 1105, upon receiving multiple pings fromclient 102 with multiple beacon identifiers from multiple ACBs 1135 a-n,may map the multiple beacon identifiers to a same location. For example,while each beacon identifier may in each ping may correspond to aslightly different location, the tool 1105 can cluster the multiplepings together and return a single location, rather than multiplelocation. The tool 1105 can associate the single location with the timeinterval in which the multiple pings were received. For example, for a10 minute time interval, the tool 1105 may map multiple pings associatedwith multiple beacon identifiers form multiple ACBs 1135 a-n to a singlelocation.

The single location may correspond to one of the locations that map toone of the identifiers. In some cases, the location engine 1105 cangenerate a new location or virtual location based on the multiple beaconidentifiers corresponding mapped locations within the time interval. Thelocation engine 1105 can generate a virtual beacon that corresponds tothe virtual location and store the mapping of the virtual beaconidentifier to the virtual location in the database. For example, eachbeacon identifier may correspond to a different location. The locationengine 1105 can identify the various locations by performing a lookup inthe database 1115. The location engine 1105, upon identifying themultiple locations, can generate an additional location based on theidentified multiple locations. The additional or virtual location may bedifferent from the identified location. The additional or virtuallocation may be an average or combined location. For example, thelocation engine 1105 can receive two pings from client device 102 thatcorrespond to two locations of two ACBs 1135 a and ACB 1135 b. Thelocation engine 1105 can combine the two locations to identify a thirdlocation 1165 that is half-way between the location of ACB 1135 a andACB 1135 b. In some embodiments, the location engine 1105 can apply aweighting to the multiple pings to generate the additional location. Theweighting may be a weighted average. For example, if the location engine1105 receives three pings from client device within a predetermined timeinterval, and two of the pings are from ACB 1135 a and one is from ACB1135B, the location engine may weight the location corresponding to ACB1135 a higher, and generate the additional or virtual location closer toACB 1135 a as compared to ACB 1135 b, such as at location 1170. Thus, byusing multiple ACBs with multiple beacon identifiers, and combining thisinformation based on a time interval, the location engine 1105 cangenerate more granular location information. The location engine 1105can further generate a virtual beacon identifier and map the virtualbeacon identifier to the additional location. Thereafter, upon receivingmultiple pings corresponding to the multiple beacons from a clientdevice within a time interval, the location engine 1105 can map themultiple pings to the virtual beacon identifier, and perform furtherprocessing based on the virtual beacon identifier.

Although generally described as providing a location identifier orinformation in response to a location request, any type of informationassociated with ACB device may be retrieved by the location engine 1105from the database 1115 and used for further processing. Additionalinformation can include, e.g., profile information associated with theACB 1135 a, status information, environmental information, sensorinformation, entity name (e.g., a name of a retail store in which theACB 1135 is attached; branch code, etc.). This additional information,which may or may not indicate location, can be mapped to the BecoID inthe database 115.

For example, the tool 1105 can receive a request that includes a uniformresource identifier that identifies the beacon (or ACB 1135). Theuniform resource identifier can be an encoded uniform resource locator,such as a web address, filename and path, executable name or path, orother resource locator. The tool can decode the uniform resourceidentifier provided with the received request to determine the uniformresource locator. For example, the database may contain a mapping of theuniform resource identifier for the beacon that maps to the URL. Thetool can then direct the computing device 102 to the determined uniformresource locator, or other provide the decoded uniform resource locatorto the device 102 for further processing. For example, the tool 1105 canprovide the URL to the agent executed by the device, and the agent mayaccess the resource via the URL.

The tool 1105 can include a report generator 1110 that can generatereports, such as those illustrated in FIGS. 3 and 4. The reportgenerator 1110 perform various analytics based on the beaconinformation. In some embodiments, the report generator 1110 can generatea report for display via a user interface, graphical user interface. Thereport generator 1110 can generate an alert, notification, prompt orother indication. The report generator 1110 convey the report via thenetwork 104 to another entity or system, such as a building managementsystem, advertisement platform, etc. In some embodiments, the report canidentify a virtual beacon identifier and corresponding location.

FIG. 12 illustrates an apparatus for indoor light enabled positioning,in accordance with an embodiment. FIG. 12 shows a variation of on an ACBconfigured to harvest solar energy from a Light Source as describedherein. The apparatus shown is displayed by way of example and is one ofmany ways to achieve the same result.

The ACB 1135 includes fastener 1125, such as bulb clips or straps orother fasteners. The light source 1120 may include a bulb or tube light.The ACB 1135 can attach to bulb via the fastener 1125. The ACB caninclude a housing with a printed circuit board. The printed circuitboard can be attached to solar cells, radio, processor, components andcan be at least partially enclosed by a cover.

FIG. 13 illustrates an apparatus for indoor light enabled positioning,in accordance with an embodiment. The apparatus includes an ACB 1135,with fasteners 1125 and a solar module 1145.

FIG. 14 illustrates an apparatus for indoor light enabled positioning,in accordance with an embodiment. The apparatus includes an ACB 1135,with fasteners 1125. The ACB 1135 can include an opening for anindicator 1405. The indicator may be an optical indicator such as anLED. The opening 1405 may also be used to facilitate broadcasting thebeacon, or provide a button for enabling/disabling the beacon.

FIG. 15 illustrates an apparatus and components thereof for indoor lightenabled positioning, in accordance with an embodiment. The ACB 1135includes fasteners 1125 and solar module 1145. The ACB 1135 can includea housing 1505 and 1510. The housing 1505 may be a first housing, andthe housing 1510 may be a second housing. The first and second housings1505 and 1510 may be joined together via grooves in the housing. Thefasteners 1125 can include an attachment mechanism 1515 and 1520 thatattach the fasteners 1125 to the housing 1505 and 1510. The attachmentmechanism 1515 and 1520 may be a locking or clipping mechanism. In someembodiments, the attachment mechanism may be removable or fixed.

FIG. 16 illustrates an apparatus for indoor light enabled positioning,in accordance with an embodiment. In this illustration, the ACB 1135 isattached to the light source 1120 via fasteners 1125. The distance D 130between the solar module 1145 and light source 1120 is such that thesolar module 1145 can receive sufficient light to convert the light toelectricity to power the electrical components of the ACB 1135.

Referring now to FIGS. 17A-17D, network and computing environments forpracticing the systems and methods disclosed herein will be described.Referring to FIG. 17A, an embodiment of a network environment isdepicted. In brief overview, the network environment includes one ormore clients 102 a-102 n (also generally referred to as local machine(s)102, client(s) 102, client node(s) 102, client machine(s) 102, clientcomputer(s) 102, client device(s) 102, endpoint(s) 102, or endpointnode(s) 102) in communication with one or more servers 106 a-106 n (alsogenerally referred to as backend server(s) 106, backend node 106, orbackend remote machine(s) 106) associated with the backend system 105via one or more networks 104. In some embodiments, a client 102 has thecapacity to function as both a client node seeking access to resourcesprovided by a server and as a server providing access to hostedresources for other clients 102 a-102 n.

Although FIG. 17A shows a network 104 between the clients 102 and theservers 106, the clients 102 and the servers 106 may be on the samenetwork 104. In some embodiments, there are multiple networks 104between the clients 102 and the servers 106. In one of theseembodiments, a network 104′ (not shown) may be a private network and anetwork 104 may be a public network. In another of these embodiments, anetwork 104 may be a private network and a network 104′ a publicnetwork. In still another of these embodiments, networks 104 and 104′may both be private networks.

The network 104 may be connected via wired or wireless links. Wiredlinks may include Digital Subscriber Line (DSL), coaxial cable lines, oroptical fiber lines. The wireless links may include BLUETOOTH, Wi-Fi,Worldwide Interoperability for Microwave Access (WiMAX), an infraredchannel or satellite band. The wireless links may also include anycellular network standards used to communicate among mobile devices,including standards that qualify as 17E, 2G, 3G, or 4G. The networkstandards may qualify as one or more generation of mobiletelecommunication standards by fulfilling a specification or standardssuch as the specifications maintained by International TelecommunicationUnion. The 3G standards, for example, may correspond to theInternational Mobile Telecommunications-2000 (IMT-2000) specification,and the 4G standards may correspond to the International MobileTelecommunications Advanced (IMT-Advanced) specification. Examples ofcellular network standards include AMPS, GSM, GPRS, UMTS, LTE, LTEAdvanced, Mobile WiMAX, and WiMAX-Advanced. Cellular network standardsmay use various channel access methods e.g. FDMA, TDMA, CDMA, or SDMA.In some embodiments, different types of data may be transmitted viadifferent links and standards. In other embodiments, the same types ofdata may be transmitted via different links and standards.

The network 104 may be any type and/or form of network. The geographicalscope of the network 104 may vary widely and the network 104 can be abody area network (BAN), a personal area network (PAN), a local-areanetwork (LAN), e.g. Intranet, a metropolitan area network (MAN), a widearea network (WAN), or the Internet. The topology of the network 104 maybe of any form and may include, e.g., any of the following:point-to-point, bus, star, ring, mesh, or tree. The network 104 may bean overlay network which is virtual and sits on top of one or morelayers of other networks 104′. The network 104 may be of any suchnetwork topology as known to those ordinarily skilled in the art capableof supporting the operations described herein. The network 104 mayutilize different techniques and layers or stacks of protocols,including, e.g., the Ethernet protocol, the internet protocol suite(TCP/IP), the ATM (Asynchronous Transfer Mode) technique, the SONET(Synchronous Optical Networking) protocol, or the SDH (SynchronousDigital Hierarchy) protocol. The TCP/IP internet protocol suite mayinclude application layer, transport layer, internet layer (including,e.g., IPv6), or the link layer. The network 104 may be a type of abroadcast network, a telecommunications network, a data communicationnetwork, or a computer network.

In some embodiments, the system may include multiple, logically-groupedservers 106. In one of these embodiments, the logical group of serversmay be referred to as a backend server farm 38 or a backend machine farm38. In another of these embodiments, the servers 106 may begeographically dispersed. In other embodiments, a machine farm 38 may beadministered as a single entity. In still other embodiments, the backendmachine farm 38 includes a plurality of backend machine farms 38. Theservers 106 within each backend machine farm 38 can be heterogeneous—oneor more of the servers 106 or backend machines 106 can operate accordingto one type of operating system platform (e.g., WINDOWS NT, manufacturedby Microsoft Corp. of Redmond, Wash.), while one or more of the otherservers 106 can operate on according to another type of operating systemplatform (e.g., Unix, Linux, or Mac OS X).

In one embodiment, servers 106 in the machine farm 38 may be stored inhigh-density rack systems, along with associated storage systems, andlocated in an enterprise data center. In this embodiment, consolidatingthe servers 106 in this way may improve system manageability, datasecurity, the physical security of the system, and system performance bylocating servers 106 and high performance storage systems on localizedhigh performance networks. Centralizing the servers 106 and storagesystems and coupling them with advanced system management tools allowsmore efficient use of server resources.

The servers 106 of each machine farm 38 do not need to be physicallyproximate to another backend server 106 in the same backend machine farm38. Thus, the group of servers 106 logically grouped as a backendmachine farm 38 may be interconnected using a wide-area network (WAN)connection or a metropolitan-area network (MAN) connection. For example,a backend machine farm 38 may include servers 106 physically located indifferent continents or different regions of a continent, country,state, city, campus, or room. Data transmission speeds between servers106 in the backend machine farm 38 can be increased if the servers 106are connected using a local-area network (LAN) connection or some formof direct connection. In some embodiments, a heterogeneous backendmachine farm 38 may include one or more servers 106 operating accordingto a type of operating system, while one or more other servers 106execute one or more types of hypervisors rather than operating systems.In these embodiments, hypervisors may be used to emulate virtualhardware, partition physical hardware, virtualize physical hardware, andexecute virtual machines that provide access to computing environments,allowing multiple operating systems to run concurrently on a hostcomputer. Native hypervisors may run directly on the host computer.Hypervisors may include VMware ESX/ESXi, manufactured by VMWare, Inc.,of Palo Alto, Calif.; the Xen hypervisor, an open source product whosedevelopment is overseen by Citrix Systems, Inc.; the HYPER-V hypervisorsprovided by Microsoft or others. Hosted hypervisors may run within anoperating system on a second software level. Examples of hostedhypervisors may include VMware Workstation and VIRTUALBOX.

Management of the backend machine farm 38 may be de-centralized. Forexample, one or more servers 106 may comprise components, subsystems andmodules to support one or more management services for the backendmachine farm 38. In one of these embodiments, one or more servers 106provide functionality for management of dynamic data, includingtechniques for handling failover, data replication, and increasing therobustness of the backend machine farm 38. Each backend server 106 maycommunicate with a persistent store and, in some embodiments, with adynamic store.

Backend server 106 may be a file server, application server, web server,proxy server, appliance, network appliance, gateway, gateway server,virtualization server, deployment server, SSL VPN server, or firewall.In one embodiment, the backend server 106 may be referred to as abackend remote machine or a backend node.

Referring to FIG. 17B, a cloud computing environment is depicted. Acloud computing environment may provide client 102 with one or moreresources provided by a network environment. The cloud computingenvironment may include one or more clients 102 a-102 n, incommunication with the cloud 108 over one or more networks 104. Clients102 may include, e.g., thick clients, thin clients, and zero clients. Athick client may provide at least some functionality even whendisconnected from the cloud 108 or servers 106. A thin client or a zeroclient may depend on the connection to the cloud 108 or backend server106 to provide functionality. A zero client may depend on the cloud 108or other networks 104 or servers 106 to retrieve operating system datafor the client device. The cloud 108 may include backend platforms,e.g., servers 106, storage, backend server farms or data centers.

The cloud 108 may be public, private, or hybrid. Public clouds mayinclude public servers 106 that are maintained by third parties to theowners of the application. The servers 106 may be located off-site inremote geographical locations as disclosed above or otherwise. Publicclouds may be connected to the servers 106 over a public network.Private clouds may include private servers 106 that are physicallymaintained by owners of the applications. Private clouds may beconnected to the servers 106 over a private network 104. Hybrid clouds108 may include both the private and public networks 104 and servers106.

The cloud 108 may also include a cloud based delivery, e.g. Software asa Service (SaaS) 110, Platform as a Service (PaaS) 112, andInfrastructure as a Service (IaaS) 114. IaaS may refer to a user rentingthe use of infrastructure resources that are needed during a specifiedtime period. IaaS providers may offer storage, networking, servers orvirtualization resources from large pools, allowing the users to quicklyscale up by accessing more resources as needed. Examples of IaaS includeAMAZON WEB SERVICES provided by Amazon.com, Inc., of Seattle, Wash.,RACKSPACE CLOUD provided by Rackspace US, Inc., of San Antonio, Tex.,Google Compute Engine provided by Google Inc. of Mountain View, Calif.,or RIGHTSCALE provided by RightScale, Inc., of Santa Barbara, Calif.PaaS providers may offer functionality provided by IaaS, including,e.g., storage, networking, servers or virtualization, as well asadditional resources such as, e.g., the operating system, middleware, orruntime resources. Examples of PaaS include WINDOWS AZURE provided byMicrosoft Corporation of Redmond, Wash., Google App Engine provided byGoogle Inc., and HEROKU provided by Heroku, Inc. of San Francisco,Calif. SaaS providers may offer the resources that PaaS provides,including storage, networking, servers, virtualization, operatingsystem, middleware, or runtime resources. In some embodiments, SaaSproviders may offer additional resources including, e.g., data andapplication resources. Examples of SaaS include GOOGLE APPS provided byGoogle Inc., SALESFORCE provided by Salesforce.com Inc. of SanFrancisco, Calif., or OFFICE 365 provided by Microsoft Corporation.Examples of SaaS may also include data storage providers, e.g. DROPBOXprovided by Dropbox, Inc. of San Francisco, Calif., Microsoft SKYDRIVEprovided by Microsoft Corporation, Google Drive provided by Google Inc.,or Apple ICLOUD provided by Apple Inc. of Cupertino, Calif.

Clients 102 may access IaaS resources with one or more IaaS standards,including, e.g., Amazon Elastic Compute Cloud (EC2), Open CloudComputing Interface (OCCI), Cloud Infrastructure Management Interface(CIMI), or OpenStack standards. Some IaaS standards may allow clientsaccess to resources over HTTP, and may use Representational StateTransfer (REST) protocol or Simple Object Access Protocol (SOAP).Clients 102 may access PaaS resources with different PaaS interfaces.Some PaaS interfaces use HTTP packages, standard Java APIs, JavaMailAPI, Java Data Objects (JDO), Java Persistence API (JPA), Python APIs,web integration APIs for different programming languages including,e.g., Rack for Ruby, WSGI for Python, or PSGI for Perl, or other APIsthat may be built on REST, HTTP, XML, or other protocols. Clients 102may access SaaS resources through the use of web-based user interfaces,provided by a web browser (e.g. GOOGLE CHROME, Microsoft INTERNETEXPLORER, or Mozilla Firefox provided by Mozilla Foundation of MountainView, Calif.). Clients 102 may also access SaaS resources throughsmartphone or tablet applications, including, e.g., Salesforce SalesCloud, or Google Drive app. Clients 102 may also access SaaS resourcesthrough the client operating system, including, e.g., Windows filesystem for DROPBOX.

In some embodiments, access to IaaS, PaaS, or SaaS resources may beauthenticated. For example, a server or authentication server mayauthenticate a user via security certificates, HTTPS, or API keys. APIkeys may include various encryption standards such as, e.g., AdvancedEncryption Standard (AES). Data resources may be sent over TransportLayer Security (TLS) or Secure Sockets Layer (SSL).

The client 102 and backend server 106 may be deployed as and/or executedon any type and form of computing device, e.g. a computer, networkdevice or appliance capable of communicating on any type and form ofnetwork and performing the operations described herein. FIGS. 17C and17D depict block diagrams of a computing device 100 useful forpracticing an embodiment of the client 102 or a backend server 106. Asshown in FIGS. 17C and 17D, each computing device 100 includes a centralprocessing unit 121, and a main memory unit 122. As shown in FIG. 17C, acomputing device 100 may include a storage device 128, an installationdevice 116, a network interface 118, an I/O controller 123, displaydevices 124 a-124 n, a keyboard 126 and a pointing device 127, e.g. amouse. The storage device 128 may include, without limitation, anoperating system, software, applications 120 or a combination thereof.As shown in FIG. 17D, each computing device 100 may also includeadditional optional elements, e.g. a memory port 113, a bridge 170, oneor more input/output devices 130 a-130 n (generally referred to usingreference numeral 130), and a cache memory 140 in communication with thecentral processing unit 121.

The central processing unit 121 is any logic circuitry that responds toand processes instructions fetched from the main memory unit 122. Inmany embodiments, the central processing unit 121 is provided by amicroprocessor unit, e.g.: those manufactured by Intel Corporation ofMountain View, Calif.; those manufactured by Motorola Corporation ofSchaumburg, Ill.; the ARM processor and TEGRA system on a chip (SoC)manufactured by Nvidia of Santa Clara, Calif.; the POWER7 processor,those manufactured by International Business Machines of White Plains,N.Y.; or those manufactured by Advanced Micro Devices of Sunnyvale,Calif. The computing device 100 may be based on any of these processors,or any other processor capable of operating as described herein. Thecentral processing unit 121 may utilize instruction level parallelism,thread level parallelism, different levels of cache, and multi-coreprocessors. A multi-core processor may include two or more processingunits on a single computing component. Examples of a multi-coreprocessors include the AMD PHENOM IIX2, INTEL CORE i5 and INTEL CORE i7.

Main memory unit 122 may include one or more memory chips capable ofstoring data and allowing any storage location to be directly accessedby the microprocessor 121. Main memory unit 122 may be volatile andfaster than storage 128 memory. Main memory units 122 may be Dynamicrandom access memory (DRAM) or any variants, including static randomaccess memory (SRAM), Burst SRAM or SynchBurst SRAM (BSRAM), Fast PageMode DRAM (FPM DRAM), Enhanced DRAM (EDRAM), Extended Data Output RAM(EDO RAM), Extended Data Output DRAM (EDO DRAM), Burst Extended DataOutput DRAM (BEDO DRAM), Single Data Rate Synchronous DRAM (SDR SDRAM),Double Data Rate SDRAM (DDR SDRAM), Direct Rambus DRAM (DRDRAM), orExtreme Data Rate DRAM (XDR DRAM). In some embodiments, the main memory122 or the storage 128 may be non-volatile; e.g., non-volatile readaccess memory (NVRAM), flash memory non-volatile static RAM (nvSRAM),Ferroelectric RAM (FeRAM), Magnetoresistive RAM (MRAM), Phase-changememory (PRAM), conductive-bridging RAM (CBRAM),Silicon-Oxide-Nitride-Oxide-Silicon (SONOS), Resistive RAM (RRAM),Racetrack, Nano-RAM (NRAM), or Millipede memory. The main memory 122 maybe based on any of the above described memory chips, or any otheravailable memory chips capable of operating as described herein. In theembodiment shown in FIG. 17C, the processor 121 communicates with mainmemory 122 via a system bus 150 (described in more detail below). FIG.17D depicts an embodiment of a computing device 100 in which theprocessor communicates directly with main memory 122 via a memory port103. For example, in FIG. 17D the main memory 122 may be DRDRAM.

FIG. 17D depicts an embodiment in which the main processor 121communicates directly with cache memory 140 via a secondary bus,sometimes referred to as a backside bus. In other embodiments, the mainprocessor 121 communicates with cache memory 140 using the system bus150. Cache memory 140 typically has a faster response time than mainmemory 122 and is typically provided by SRAM, BSRAM, or EDRAM. In theembodiment shown in FIG. 17D, the processor 121 communicates withvarious I/O devices 130 via a local system bus 150. Various buses may beused to connect the central processing unit 121 to any of the I/Odevices 130, including a PCI bus, a PCI-X bus, or a PCI-Express bus, ora NuBus. For embodiments in which the I/O device is a video display 124,the processor 121 may use an Advanced Graphics Port (AGP) to communicatewith the display 124 or the I/O controller 123 for the display 124. FIG.17D depicts an embodiment of a computer 100 in which the main processor121 communicates directly with I/O device 130 b or other processors 121′via HYPERTRANSPORT, RAPIDIO, or INFINIBAND communications technology.FIG. 17D also depicts an embodiment in which local busses and directcommunication are mixed: the processor 121 communicates with I/O device130 a using a local interconnect bus while communicating with I/O device130 b directly.

A wide variety of I/O devices 130 a-130 n may be present in thecomputing device 100. Input devices may include keyboards, mice,trackpads, trackballs, touchpads, touch mice, multi-touch touchpads andtouch mice, microphones, multi-array microphones, drawing tablets,cameras, single-lens reflex camera (SLR), digital SLR (DSLR), CMOSsensors, accelerometers, infrared optical sensors, pressure sensors,magnetometer sensors, angular rate sensors, depth sensors, proximitysensors, ambient light sensors, gyroscopic sensors, or other sensors.Output devices may include video displays, graphical displays, speakers,headphones, inkjet printers, laser printers, and 3-D printers.

Devices 130 a-130 n may include a combination of multiple input oroutput devices, including, e.g., Microsoft KINECT, Nintendo Wiimote forthe WII, Nintendo WII U GAMEPAD, or Apple IPHONE. Some devices 130 a-130n allow gesture recognition inputs through combining some of the inputsand outputs. Some devices 130 a-130 n provides for facial recognitionwhich may be utilized as an input for different purposes includingauthentication and other commands. Some devices 130 a-130 n provides forvoice recognition and inputs, including, e.g., Microsoft KINECT, SIRIfor IPHONE by Apple, Google Now or Google Voice Search.

Additional devices 130 a-130 n have both input and output capabilities,including, e.g., haptic feedback devices, touchscreen displays, ormulti-touch displays. Touchscreen, multi-touch displays, touchpads,touch mice, or other touch sensing devices may use differenttechnologies to sense touch, including, e.g., capacitive, surfacecapacitive, projected capacitive touch (PCT), in-cell capacitive,resistive, infrared, waveguide, dispersive signal touch (DST), in-celloptical, surface acoustic wave (SAW), bending wave touch (BWT), orforce-based sensing technologies. Some multi-touch devices may allow twoor more contact points with the surface, allowing advanced functionalityincluding, e.g., pinch, spread, rotate, scroll, or other gestures. Sometouchscreen devices, including, e.g., Microsoft PIXELSENSE orMulti-Touch Collaboration Wall, may have larger surfaces, such as on atable-top or on a wall, and may also interact with other electronicdevices. Some I/O devices 130 a-130 n, display devices 124 a-124 n orgroup of devices may be augment reality devices. The I/O devices may becontrolled by an I/O controller 123 as shown in FIG. 17B. The I/Ocontroller may control one or more I/O devices, such as, e.g., akeyboard 126 and a pointing device 127, e.g., a mouse or optical pen.Furthermore, an I/O device may also provide storage and/or aninstallation medium 116 for the computing device 100. In still otherembodiments, the computing device 100 may provide USB connections (notshown) to receive handheld USB storage devices. In further embodiments,an I/O device 130 may be a bridge between the system bus 150 and anexternal communication bus, e.g. a USB bus, a SCSI bus, a FireWire bus,an Ethernet bus, a Gigabit Ethernet bus, a Fiber Channel bus, or aThunderbolt bus.

In some embodiments, display devices 124 a-124 n may be connected to I/Ocontroller 123. Display devices may include, e.g., liquid crystaldisplays (LCD), thin film transistor LCD (TFT-LCD), blue phase LCD,electronic papers (e-ink) displays, flexile displays, light emittingdiode displays (LED), digital light processing (DLP) displays, liquidcrystal on silicon (LCOS) displays, organic light-emitting diode (OLED)displays, active-matrix organic light-emitting diode (AMOLED) displays,liquid crystal laser displays, time-multiplexed optical shutter (TMOS)displays, or 3D displays. Examples of 3-D displays may use, e.g.stereoscopy, polarization filters, active shutters, or autostereoscopy.Display devices 124 a-124 n may also be a head-mounted display (HMD). Insome embodiments, display devices 124 a-124 n or the corresponding I/Ocontrollers 123 may be controlled through or have hardware support forOPENGL or DIRECTX API or other graphics libraries.

In some embodiments, the computing device 100 may include or connect tomultiple display devices 124 a-124 n, which each may be of the same ordifferent type and/or form. As such, any of the I/O devices 130 a-130 nand/or the I/O controller 123 may include any type and/or form ofsuitable hardware, software, or combination of hardware and software tosupport, enable or provide for the connection and use of multipledisplay devices 124 a-124 n by the computing device 100. For example,the computing device 100 may include any type and/or form of videoadapter, video card, driver, and/or library to interface, communicate,connect or otherwise use the display devices 124 a-124 n. In oneembodiment, a video adapter may include multiple connectors to interfaceto multiple display devices 124 a-124 n. In other embodiments, thecomputing device 100 may include multiple video adapters, with eachvideo adapter connected to one or more of the display devices 124 a-124n. In some embodiments, any portion of the operating system of thecomputing device 100 may be configured for using multiple displays 124a-124 n. In other embodiments, one or more of the display devices 124a-124 n may be provided by one or more other computing devices 100 a or100 b connected to the computing device 100, via the network 104. Insome embodiments software may be designed and constructed to use anothercomputer's display device as a second display device 124 a for thecomputing device 100. For example, in one embodiment, an Apple iPad mayconnect to a computing device 100 and use the display of the device 100as an additional display screen that may be used as an extended desktop.One ordinarily skilled in the art will recognize and appreciate thevarious ways and embodiments that a computing device 100 may beconfigured to have multiple display devices 124 a-124 n.

Referring again to FIG. 17C, the computing device 100 may comprise astorage device 128 (e.g. one or more hard disk drives or redundantarrays of independent disks) for storing an operating system or otherrelated software, and for storing application software programs such asany program related to the software 120 for the server 106, client 102,lighting unit or ACB. Examples of storage device 128 include, e.g., harddisk drive (HDD); optical drive including CD drive, DVD drive, orBLU-RAY drive; solid-state drive (SSD); USB flash drive; or any otherdevice suitable for storing data. Some storage devices may includemultiple volatile and non-volatile memories, including, e.g., solidstate hybrid drives that combine hard disks with solid state cache. Somestorage device 128 may be non-volatile, mutable, or read-only. Somestorage device 128 may be internal and connect to the computing device100 via a bus 150. Some storage device 128 may be external and connectto the computing device 100 via a I/O device 130 that provides anexternal bus. Some storage device 128 may connect to the computingdevice 100 via the network interface 118 over a network 104, including,e.g., the Remote Disk for MACBOOK AIR by Apple. Some client devices 100may not require a non-volatile storage device 128 and may be thinclients or zero clients 102. Some storage device 128 may also be used asan installation device 116, and may be suitable for installing softwareand programs. Additionally, the operating system and the software can berun from a bootable medium, for example, a bootable CD, e.g. KNOPPIX, abootable CD for GNU/Linux that is available as a GNU/Linux distributionfrom knoppix.net.

Client device 100 may also install software or application from anapplication distribution platform. Examples of application distributionplatforms include the App Store for iOS provided by Apple, Inc., the MacApp Store provided by Apple, Inc., GOOGLE PLAY for Android OS providedby Google Inc., Chrome Webstore for CHROME OS provided by Google Inc.,and Amazon Appstore for Android OS and KINDLE FIRE provided byAmazon.com, Inc. An application distribution platform may facilitateinstallation of software on a client device 102. An applicationdistribution platform may include a repository of applications on aserver 106 or a cloud 108, which the clients 102 a-102 n may access overa network 104. An application distribution platform may includeapplication developed and provided by various developers. A user of aclient device 102 may select, purchase and/or download an applicationvia the application distribution platform.

Furthermore, the computing device 100 may include a network interface118 to interface to the network 104 through a variety of connectionsincluding, but not limited to, standard telephone lines LAN or WAN links(e.g., 802.11, T1, T3, Gigabit Ethernet, Infiniband), broadbandconnections (e.g., ISDN, Frame Relay, ATM, Gigabit Ethernet,Ethernet-over-SONET, ADSL, VDSL, BPON, GPON, fiber optical includingFiOS), wireless connections, or some combination of any or all of theabove. Connections can be established using a variety of communicationprotocols (e.g., TCP/IP, Ethernet, ARCNET, SONET, SDH, Fiber DistributedData Interface (FDDI), IEEE 802.11a/b/g/n/ac CDMA, GSM, WiMax and directasynchronous connections). In one embodiment, the computing device 100communicates with other computing devices 100′ via any type and/or formof gateway or tunneling protocol e.g. Secure Socket Layer (SSL) orTransport Layer Security (TLS), or the Citrix Gateway Protocolmanufactured by Citrix Systems, Inc. of Ft. Lauderdale, Fla. The networkinterface 118 may comprise a built-in network adapter, network interfacecard, PCMCIA network card, EXPRESSCARD network card, card bus networkadapter, wireless network adapter, USB network adapter, modem or anyother device suitable for interfacing the computing device 100 to anytype of network capable of communication and performing the operationsdescribed herein.

A computing device 100 of the sort depicted in FIGS. 17C and 17D mayoperate under the control of an operating system, which controlsscheduling of tasks and access to system resources. The computing device100 can be running any operating system such as any of the versions ofthe MICROSOFT WINDOWS operating systems, the different releases of theUnix and Linux operating systems, any version of the MAC OS forMacintosh computers, any embedded operating system, any real-timeoperating system, any open source operating system, any proprietaryoperating system, any operating systems for mobile computing devices, orany other operating system capable of running on the computing deviceand performing the operations described herein. Typical operatingsystems include, but are not limited to: WINDOWS 2000, WINDOWS Server2012, WINDOWS CE, WINDOWS Phone, WINDOWS XP, WINDOWS VISTA, and WINDOWS7, WINDOWS RT, and WINDOWS 8 all of which are manufactured by MicrosoftCorporation of Redmond, Wash.; MAC OS and iOS, manufactured by Apple,Inc. of Cupertino, Calif.; and Linux, a freely-available operatingsystem, e.g. Linux Mint distribution (“distro”) or Ubuntu, distributedby Canonical Ltd. of London, United Kingdom; or Unix or other Unix-likederivative operating systems; and Android, designed by Google, ofMountain View, Calif., among others. Some operating systems, including,e.g., the CHROME OS by Google, may be used on zero clients or thinclients, including, e.g., CHROMEBOOKS.

The computer system 100 can be any workstation, telephone, desktopcomputer, laptop or notebook computer, netbook, ULTRABOOK, tablet,server, handheld computer, mobile telephone, smartphone or otherportable telecommunications device, media playing device, a gamingsystem, mobile computing device, or any other type and/or form ofcomputing, telecommunications or media device that is capable ofcommunication. The computer system 100 has sufficient processor powerand memory capacity to perform the operations described herein. In someembodiments, the computing device 100 may have different processors,operating systems, and input devices consistent with the device. TheSamsung GALAXY smartphones, e.g., operate under the control of Androidoperating system developed by Google, Inc. GALAXY smartphones receiveinput via a touch interface.

In some embodiments, the computing device 100 is a tablet e.g. the IPADline of devices by Apple; GALAXY TAB family of devices by Samsung; orKINDLE FIRE, by Amazon.com, Inc. of Seattle, Wash. In other embodiments,the computing device 100 is a eBook reader, e.g. the KINDLE family ofdevices by Amazon.com, or NOOK family of devices by Barnes & Noble, Inc.of New York City, N.Y.

In some embodiments, the communications device 102 includes acombination of devices, e.g. a smartphone combined with a digital audioplayer or portable media player. For example, one of these embodimentsis a smartphone, e.g. the IPHONE family of smartphones manufactured byApple, Inc.; a Samsung GALAXY family of smartphones manufactured bySamsung, Inc; or a Motorola DROID family of smartphones. In yet anotherembodiment, the communications device 102 is a laptop or desktopcomputer equipped with a web browser and a microphone and speakersystem, e.g. a telephony headset. In these embodiments, thecommunications devices 102 are web-enabled and can receive and initiatephone calls. In some embodiments, a laptop or desktop computer is alsoequipped with a webcam or other video capture device that enables videochat and video call.

In some embodiments, the status of one or more machines 102, 106 in thenetwork 104 is monitored, generally as part of network management. Inone of these embodiments, the status of a machine may include anidentification of load information (e.g., the number of processes on themachine, CPU and memory utilization), of port information (e.g., thenumber of available communication ports and the port addresses), or ofsession status (e.g., the duration and type of processes, and whether aprocess is active or idle). In another of these embodiments, thisinformation may be identified by a plurality of metrics, and theplurality of metrics can be applied at least in part towards decisionsin load distribution, network traffic management, and network failurerecovery as well as any aspects of operations of the present solutiondescribed herein. Aspects of the operating environments and componentsdescribed above will become apparent in the context of the systems andmethods disclosed herein.

The systems and method of the various embodiments of the presentsolution and as described herein may be done a number of ways and oneskilled in the art will recognize that the method presented isrepresentative of the spirit of the present solution in such that theexecution may vary once implemented.

1. A device comprising: a housing comprising a processor and a wirelessradio; one or more clips configured to securely attach to a light sourceto position the housing of the device adjacent to and a predetermineddistance from a portion of the light source that produces light; one ormore solar cells of the device oriented towards the light source andconfigured to be exposed to light from the light source upon the housingbeing securely attached via the one or more clips adjacent to theportion of the light source; a circuit by which power is converted fromthe one or more solar cells to the processor and the wireless radio viaat least one power converter; and wherein the wireless radio isconfigured to broadcast a beacon provided by the processor.
 2. Thedevice of claim 1, wherein the one or more clips are one of removable orattachable to the housing.
 3. The device of claim 2, wherein the lightsource comprises a light tube or a light fixture, and the one or moreclips are configured to attach to the light tube or the light fixture ofone of a particular type or diameter, and the predetermined distancecomprises a distance by which the light from the light tube or the lightfixture provides power at a level to operate the processor and thewireless radio.
 4. The device of claim 1, further comprising a storagecomponent to store energy.
 5. The device of claim 1, further comprisingthe at least one power converter to convert a first voltage from the oneor more solar cells to a second voltage that operates one or more of theprocessor, the wireless radio or storage component.
 6. The device ofclaim 1, wherein the beacon comprises a string encoded with a key. 7.The device of claim 6, wherein the beacon further comprises a uniformresource identifier that identifies a web address followed by data thatincludes the encoded string.
 8. The device of claim 6, wherein thebeacon comprises a universally unique identifier followed by a major andminor value.
 9. The device of claim 6, wherein the beacon comprisesmeasured data.
 10. The device of claim 1, wherein the processor isconfigured to change at least a portion of the beacon to be broadcastedby the wireless radio.
 11. The device of claim 1, wherein the processoris further configured to change at least a portion of the beacon as afunction of one of an equation, an algorithm or time.
 12. The device ofclaim 1, wherein the device broadcasts the beacon at a predeterminedfrequency for a defined period of time.
 13. The device of claim 12,wherein the processor adjusts the frequency of the beacon broadcast as afunction of the power available from the one or more solar cells.
 14. Asystem comprising: a solar-powered device comprising: a housingcontaining a processor and a wireless radio; one or more clipsconfigured to securely attach to a light source to position the housingof the solar-powered device adjacent to a portion of the light sourcethat produces light; one or more solar cells oriented towards the lightsource and configured to be exposed to light from the light source uponthe housing being securely attached via the one or more clips adjacentto the portion of the light source; wherein the processor is powered viathe one or more solar cells and configured to provide a beacon, thebeacon corresponding to an identifier associated with the solar-powereddevice; wherein the wireless radio is powered via the one or more solarcells and configured to broadcast the beacon; and a server comprising: adatabase comprising one or more identifiers and one or more keys, theone or more keys used to map the beacon to the one or more identifiers;wherein the server is configured to receive from a second device arequest comprising the beacon, the second device receiving the beaconfrom the broadcast of the beacon from the solar-powered device; andwherein the server is configured to respond to the second device withthe identifier from the database.
 15. The system of claim 14, whereinthe processor is configured to change at least a portion of the beaconcomprising a string encoded with a key of the one or more keys.
 16. Thesystem of claim 15, wherein the solar-powered device is configured tobroadcast different encoded strings for the same identifier.
 17. Thesystem of claim 14, wherein the second device is a mobile deviceconfigured to receive the beacon and responsive to the beacon, anapplication on the mobile device is configured to transmit to the serverthe request identifying the beacon.
 18. The system of claim 14, whereinthe server is configured to receive from the second device the requestcomprising a uniform resource identifier, the uniform resourceidentifier comprising the beacon, wherein the uniform resourceidentifier is an encoded uniform resource locator that is decoded andredirected by the server.
 19. The system of claim 14, wherein the serveris configured to use a key of the one or more keys to decode the beaconand use the decoded beacon to map to the identifier in the databaseassociated with the solar-powered device.
 20. The system of claim 14,wherein the second device is further configured to receive within apredetermined time a plurality of beacons from a plurality ofsolar-powered devices and transmit one or more requests to the serverfor each of the received plurality of beacons, and wherein the server isfurther configured to determine a single identifier responsive toreceiving the plurality of beacons and to transmit to the second devicethe single identifier.
 21. A method comprising: attaching one or moreclips to a light source to position a device adjacent to and apredetermined distance from a portion of the light source that produceslight, the device having a housing comprising a processor and a wirelessradio; receiving, by the device, power via one or more solar cells ofthe device oriented towards the light source and exposed to light fromthe light source; converting, by the device via a power converter, powerfrom the one or more solar cells to the processor and the wirelessradio; and broadcasting, by the wireless radio, the beacon.
 22. Themethod of claim 21, further comprising receiving, by a server, a requestfrom a second device, the request comprising the beacon received fromthe broadcast of the beacon from the device.
 23. The method of claim 22,further comprising receiving, by the server, the request comprising auniform resource identifier identifying the beacon, wherein the uniformresource identifier is an encoded uniform resource locator that isdecoded and redirected by a server.
 24. The method of claim 22, furthercomprising transmitting, by the server responsive to the request, to thesecond device an identifier associated with the device.
 25. The methodof claim 21, further comprising broadcasting, by the wireless radio, thebeacon at a predetermined frequency for a defined period of time. 26.The method of claim 21, wherein the light source comprises a light tube,and the one or more clips are configured to attach to the light tube ofone of a particular type or diameter.
 27. The method of claim 21,wherein the predetermined distance comprises a distance by which thelight from the light source provides power at a level to operate theprocessor and the wireless radio.
 28. The method of claim 21, furthercomprising generating, by the processor, the beacon to comprise a stringencoded with a key.
 29. The method of claim 21, further comprisinggenerating, by the processor, the beacon to comprise a uniform resourceidentifier that identifies a web address followed by data that includesthe encoded string.
 30. The method of claim 21, further comprising,changing by the processor, at least a portion of the beacon as afunction of one of an equation, an algorithm or time.